{"schema_version":1,"experiment_id":"eoa_inverse_innovation_exp12_substrate_denial72_20260805","cell_id":"authority_mentor_relationship_anchoring__chemistry_materials","arm":"CONSTRAINED_MAX","candidate_id":"authority_mentor_relationship_anchoring__chemistry_materials__CONSTRAINED_MAX","decision":"PROPOSAL","abstention_reason":null,"proposal":{"schema_version":1,"experiment_id":"eoa_inverse_innovation_exp12_substrate_denial72_20260805","cell_id":"authority_mentor_relationship_anchoring__chemistry_materials","arm":"CONSTRAINED_MAX","candidate_id":"authority_mentor_relationship_anchoring__chemistry_materials__CONSTRAINED_MAX","proposal_index":1,"version":0,"title":"Detachable Mentor-Seed Cradle for Independent Polymorph Propagation","problem":"A laboratory needs to propagate a selected solid form of a polymorphic molecular material from an authenticated reference crystal while obtaining daughter crystals whose form persists after the reference is physically absent. Unseeded crystallization can leave the selected form indeterminate, while loose seeding can confound genuine propagation with residual seed fragments.","actors":["Solvated molecules of the polymorphic material","An authenticated low-defect single crystal of the selected polymorph","An independently prepared secondary crystal of the same polymorph","An inert sliding microaperture mask and crystal holder","Daughter crystallites growing through the apertures","A size-selective rinse mesh and seed-free regrowth chamber","A materials operator responsible for the bounded experiment"],"observable_state":"The problem is present if matched unseeded or sham-seeded cells produce multiple solid-form signatures, loose-seeded material contains particles traceable to the original seed, or separated daughters change form during seed-free regrowth. Polarized microscopy and endpoint Raman or diffraction can distinguish these states without controlling the crystallization.","consequence":"Material properties cannot be attributed confidently to a defined bulk solid form, and persistent seed debris can be mistaken for autonomous propagation of that form.","affected_objective":"Obtain free-standing daughter crystals that retain the selected polymorph during a bounded seed-free growth interval while separating phase transmission from ancestor-fragment carryover and seed-specific defect copying.","intervention":"Build a passive two-branch glass microcrystallization cartridge. In each branch, clamp an authenticated target-form seed behind an inert sliding mask whose tapered apertures expose small low-defect facets. Load a fixed metastably supersaturated solution so solute can add reversibly at the seed face while spontaneous bulk nucleation is disfavored. Lattice-compatible arrangements are retained at the interface while less-compatible arrangements can detach. Target-form material grows through each aperture as a narrow-stemmed daughter bud; as the bud lengthens, its own lattice supplies an increasing share of the growth interface. At a preset geometric length, slide the mask to sever the narrow stems mechanically. Retain the larger daughters on a mesh, rinse away fines, and transfer them into fresh seed-free solution for one further growth interval. Use an independently prepared target-form seed in the second branch, with matched inert-coupon and conventional loose-seed controls. No sensing, computation, or automated decision is required for crystal formation or release.","structural_mapping":[{"archetype_element":"Legitimate Mentor Anchor","domain_realization":"A phase-authenticated, chemically pure, low-defect seed crystal presents the lattice whose standing derives from verified material structure rather than mere availability."},{"archetype_element":"Mentor Selection and Matching Criteria","domain_realization":"The seed polymorph, exposed facet, solvent compatibility, and integrity are selected to match the intended daughter form and growth direction."},{"archetype_element":"Mentee Readiness and Consent Boundary","domain_realization":"Only solute in a metastable supersaturation window enters the relationship: molecules can exchange reversibly with the seed surface without intended bulk nucleation or irreversible quench trapping."},{"archetype_element":"Relational Safety Container","domain_realization":"The low-volume chamber and tapered apertures spatially bound seed contact, limit the number and size of daughter stems, and permit physical isolation from seed debris."},{"archetype_element":"Cultural Norm and Value Payload","domain_realization":"The transferable payload is the selected unit-cell registry, polymorph identity, and growth orientation physically encoded by the seed lattice."},{"archetype_element":"Modeled Practice and Judgment Window","domain_realization":"The exposed seed facet repeatedly presents its molecular spacing and orientation to incoming solute at the active growth interface."},{"archetype_element":"Dialogic Interpretation Loop","domain_realization":"Bidirectional adsorption and desorption lets candidate molecular arrangements sample the interface; compatible registry is stabilized while less-compatible arrangements can return to solution."},{"archetype_element":"Progressive Autonomy Release","domain_realization":"The daughter begins with a large relative contact to the seed, grows beyond a tapered aperture, and progressively relies on its own newly formed lattice before separation."},{"archetype_element":"Autonomy and Exit Safeguard","domain_realization":"Mechanical severing, size-selective rinsing, and transfer to a fresh seed-free chamber end direct seed influence and test whether the daughter continues independently."},{"archetype_element":"Secondary Reference Anchor","domain_realization":"A physically separate branch uses an independently prepared seed of the same authenticated polymorph, allowing shared phase transmission to be distinguished from copying one seed's defects or facet idiosyncrasies."}],"mechanism_mapping":[{"mechanism_slug":"guided_shadowing_with_debrief","role":"Direct co-growth at the exposed facet lets incoming material encounter the seed's lattice pattern; subsequent seed-free regrowth reveals whether that pattern was incorporated rather than merely observed as residual seed.","counterfactual_removal":"Replacing the target seed with an inert coupon removes crystallographic guidance; any resulting crystal must originate from wall, confinement, or bulk nucleation."},{"mechanism_slug":"joint_practice_with_corrective_feedback","role":"Reversible interfacial attachment is the physical corrective loop: compatible additions persist and unstable or mismatched additions can detach before being buried.","counterfactual_removal":"A rapid quench or excessive supersaturation that makes attachment effectively irreversible removes this corrective exchange and permits kinetic trapping and independent bulk nuclei."},{"mechanism_slug":"ritualized_recognition_and_belonging","role":"A fixed geometric daughter length marks the transition from seed-supported growth to mechanical release into an independent growth chamber.","counterfactual_removal":"Without the release threshold, target-form material may grow, but autonomous persistence cannot be separated from continuous seed contact or seed carryover."},{"mechanism_slug":"mentor_rotation_or_second_opinion_channel","role":"The independently prepared second seed provides a plural physical lineage check for polymorph-level transmission versus mentor-specific defects.","counterfactual_removal":"The core templating effect can still occur, but a concordant target form cannot be distinguished as confidently from overfitting to one seed's defects or surface history."}],"causal_chain":["An authenticated target-form seed presents an ordered crystallographic facet through a bounded aperture.","Metastably supersaturated solution brings solvated molecules into reversible contact with that facet.","Interfacial energetics retain lattice-compatible arrangements more readily than incompatible arrangements.","Retained layers extend the target registry into a daughter bud growing through the aperture.","As the bud lengthens, its own target-form surface becomes the immediate template for later layers and the relative seed-contact area declines.","The sliding mask mechanically severs the narrow stem after the daughter is self-supporting.","Size-selective rinsing removes smaller debris, and the daughter enters fresh solution with no intended seed contact.","Continued target-form growth after separation constitutes the proposed autonomous propagation effect; endpoint characterization observes but does not cause it.","Concordance across two independent mentor seeds tests transmission of the shared polymorph rather than one seed's local defect pattern."],"baseline":"Use the same cartridge geometry, solution aliquot, exposure time, mask motion, rinse, and seed-free regrowth interval with a smooth inert coupon replacing the target-form seed. This controls confinement, surfaces, handling, and mechanical release while removing crystallographic mentorship.","nearest_rivals":["Conventional addition of crushed or powdered target-form seed directly to the growth vessel","A permanently attached epitaxial substrate that is never separated from the product","Unseeded slow cooling or solvent evaporation","Thermal or antisolvent programming intended to favor one polymorph through bulk conditions","Confinement-driven nucleation in pores or droplets without an authenticated phase seed","Mechanical or ultrasonic generation of secondary nuclei from an existing crystal"],"remaining_contrastive_claim":"The bounded claim is that direct reversible contact with an authenticated lattice, followed by geometrically declining contact and physical separation, can produce daughter crystals that continue the selected form during a seed-free growth interval. The independent second seed distinguishes shared polymorph transmission from copying one seed's defects. No novelty, superiority, prevalence, demand, or effect-size claim is made.","authority_safety":{"decision_authority":"A named materials principal investigator or laboratory manager with chemical-safety responsibility authorizes initiation and disposition; any operator may stop the experiment immediately.","authorized_first_step":"A bench test using one laboratory-approved low-hazard model compound with authenticated distinguishable solid forms, no more than 12 sealed microcells, no more than 100 milligrams total material, ambient pressure, and only already-approved solvent and temperature ranges.","excluded_actions":["Scale-up beyond the bounded microcell test","Use of explosive, pyrophoric, highly toxic, infectious, or unreviewed materials","Pressurized operation or deliberate uncontrolled supersaturation","Release of experimental crystals into products, organisms, drains, or the environment","Interpreting a daughter as independent when seed fracture or debris carryover has not been checked","Human or animal exposure studies","Software-controlled optimization or autonomous actuation","Claims of novelty, prevalence, demand, superiority, or effect size"],"halt_rollback":"Stop on leakage, unexpected heating or gas formation, uncontrolled bulk nucleation, visible seed shattering, mask jamming, or cross-branch contamination. Isolate the sealed cells, return solutions to undersaturation with an approved solvent only if already covered by the laboratory procedure, segregate solids, and recover or dispose of them under existing chemical rules. Any seed-fracture event invalidates the affected causal result rather than being interpreted as transmission."},"negative_tests":{"strongest_counterevidence":"The strongest counterevidence would be indistinguishable target-form outcomes in inert-coupon controls, loss or conversion of the target form after seed-free regrowth, detection of seed fragments among apparent daughters, or different phase identities inherited from two nominally equivalent independent seeds.","problem_falsifier":"If the matched unseeded or inert-coupon baseline already yields only the authenticated target form, retains it through the same transfer and regrowth interval, and contains no ancestor carryover, then the proposed phase-transmission gap is absent under the tested conditions.","intervention_falsifier":"After controlling geometry and supersaturation and excluding detectable seed debris, the intervention is falsified for the tested system if detached daughters from both seed lineages do not show a concordant directional association with the target form relative to the inert baseline, or if they fail to retain that form during seed-free regrowth.","risks":["Seed fragments may masquerade as independently instructed daughters.","The aperture edge or holder surface may nucleate the phase independently and confound the seed mechanism.","Supersaturation may fall outside the reversible-attachment regime, causing no growth or uncontrolled bulk nucleation.","A seed-specific dislocation, impurity, or surface reconstruction may be propagated along with the desired polymorph.","Mechanical release may fracture or disorder daughters and trigger a form change.","Size-selective rinsing may preferentially retain one morphology and create a sampling artifact.","The two seed branches may experience unequal thermal, concentration, or contamination histories.","Solvent exposure and crystal handling may present compound-specific chemical hazards.","Endpoint characterization may miss a minor alternate phase or sub-resolution seed debris."]},"next_evidence_step":"Run 12 passive microcells from one solution batch: two cells each with independent target-form seed A and seed B, four inert-coupon sham cells, and four conventional loose-seed rival cells. Use one fixed aperture geometry, one preselected supersaturation condition, and one fixed daughter length for release. Rinse detached daughters on the same mesh and regrow them once in fresh seed-free solution. Inspect mentor integrity and the fine-particle fraction by microscopy, then classify daughter phase before and after regrowth with an existing Raman or diffraction method. Advance only if both independent mentor lineages give concordant target-form daughters after seed-free regrowth, the sham outcome does not explain the pattern, and no seed-fragment explanation is detected at the available resolution; otherwise stop or redesign the physical interface.","prior_art_status":"UNSEARCHED","diversity_from_prior_proposals":"No other proposals or experiment cells were inspected. Within this isolated record, the candidate is characterized by a passive crystallographic relationship, reversible molecular exchange, progressive geometric separation, and a mechanically released daughter rather than by computation, reporting, incentives, or governance.","revision_record":{"parent_version":null,"progress_targets_addressed":["Construct one causally mapped chemistry-and-materials candidate","Satisfy the binding physical-substrate counterfactual","Separate autonomous propagation from persistent seed contamination","Include plural-reference and exit safeguards","Define bounded controls and falsifiers"],"conceptual_changes":["Initial version: translated mentor-anchored enculturation into a verified seed-lattice relationship that transfers polymorph registry through reversible interfacial participation and then releases the daughter."],"operational_changes":["Initial version: specified a passive dual-branch microaperture cartridge, tapered growth stems, mechanical separation, particle rinsing, and seed-free regrowth."],"evidence_changes":["Initial version: added inert-coupon and loose-seed comparators, two independent seed lineages, seed-integrity inspection, endpoint phase classification, and explicit contamination checks."],"claim_changes":["Restricted the claim to a falsifiable physical propagation mechanism and expressly excluded novelty, prevalence, demand, superiority, and effect-size claims."]},"substrate_contract":{"primary_allowed_process":"PHYSICAL_MATERIAL","counterfactual_independence":"If all software, algorithmic inference, dashboards, reporting, incentives, authorization structures, and procedural enforcement are removed, a correctly assembled cartridge still operates: molecular diffusion brings solute to the seed, crystallographic interfacial energetics govern reversible attachment, the daughter lattice propagates physically, and movement of the mask severs the stem mechanically. Removing characterization would remove knowledge of success, not the crystallization or release effect. Human approval limits the experiment but is not the operative causal channel.","forbidden_channel_audit":"The proposal contains no algorithm, database, recommender, information-routing system, or software control loop. No sensor actuates the process; microscopy, Raman, or diffraction only observe endpoints. Authorization and stop rules are safety wrappers. The fixed solution state, seed lattice, aperture geometry, diffusion, reversible molecular bonding, crystal growth, mechanical shearing, and particle-size separation are the operative processes. Manual mask movement is a mechanical intervention whose effect does not depend on compliance incentives, reporting, or inferred decisions."}}}