{"schema_version":1,"experiment_id":"eoa_inverse_innovation_exp03_full320_20260801","cell_id":"negative_space_design__chemistry_materials","trajectory_id":"R","attempt_index":0,"candidate_sha256":"0d640d46b11cbf39cf2d2269d2cb25bb8271447246a9cef5cc29015053d6c5ea","gates":{"G1":{"status":"PASS","reason":"The electrode problem is independently stated through measurable transport, reaction, deformation, and damage behavior rather than being manufactured from the archetype vocabulary."},"G2":{"status":"PASS","reason":"Patterned, bounded, protected voids have a direct structural relationship to deliberate absence, the surrounding active solid, and an effect test against equal-porosity controls."},"G3":{"status":"PASS","reason":"Channel connectivity and placement plausibly alter electrolyte-access distance, tortuosity, and mechanical constraint, providing causal leverage over the diagnosed gradients while preserving a distinguishable rival."},"G4":{"status":"PASS","reason":"The load-bearing void mechanism, fabrication supports, component dispositions, and counterfactual-removal statements are substantially complete. Some pacing and reintroduction translations are secondary design analogues, but they do not carry the central causal claim."},"G5":{"status":"PASS","reason":"Performance claims and counterclaims are explicitly bounded as hypotheses, prior art is marked unsearched, and the candidate makes no fabricated empirical or novelty claim."},"G6":{"status":"PASS","reason":"The problem can fail through absent heterogeneity or a different dominant limitation, while the intervention can independently fail despite confirmed gradients through controlled comparison with homogeneous and equal-porosity alternatives."},"G7":{"status":"PASS","reason":"Authority, affected parties, approved coupon-scale scope, excluded actions, monitored hazards, halt conditions, quarantine, and rollback are explicitly bounded."}},"scores":{"structural_fit":{"score":4,"reason":"Deliberately patterned and protected absence is the active intervention, with explicit boundaries, a relationship to the remaining solid, preservation constraints, and controlled effect tests."},"domain_fidelity":{"score":3,"reason":"The proposal respects electrochemical transport, electronic percolation, mechanical cohesion, wetting, loading, porosity, volumetric capacity, and cell-testing hazards, although quantitative feasibility remains unestablished."},"causal_plausibility":{"score":3,"reason":"The transport-shortening and strain-accommodation pathways are physically coherent and challenged by credible opposing effects from lost connectivity, cohesion, and edge stress concentration."},"component_translation":{"score":3,"reason":"All archetype components receive domain realizations and the core subset is well integrated, but rest-and-pacing and reintroduction are translated more as geometry iteration concepts than intrinsic operating mechanisms."},"adversarial_survival":{"score":4,"reason":"The candidate identifies the strongest physical tradeoffs, states where the analogy breaks, distinguishes uncontrolled damage from designed voids, and supplies independent problem and intervention falsifiers."},"reframing_gain":{"score":3,"reason":"Treating porosity as protected, relationally designed absence sharpens the contrast with indiscriminate porosity increases and organizes transport and strain relief around one geometry-specific hypothesis."},"practicality_testability":{"score":3,"reason":"Coupon-scale fabrication, matched comparators, spatial diagnostics, monitored cell tests, halt criteria, and baseline rollback form a feasible initial test, though exact geometry and decision thresholds still require protocol specification."},"expected_value_risk":{"score":3,"reason":"The bounded experiment could reveal useful transport-mechanics tradeoffs at limited scale, while explicit containment and stopping rules constrain the serious but familiar battery-testing risks."},"novelty_evidence":{"score":0,"reason":"Prior art is explicitly unsearched and the closed packet contains no literature comparison establishing novelty of patterned connected electrode channels."}},"weighted_total":78.75,"disposition":"DEEP_RESEARCH","fabrication_findings":[],"weak_dimensions":["novelty_evidence"],"actionable_critique":[{"priority":"HIGH","issue":"The packet cannot establish whether the proposed channel architecture or its combined transport-and-strain rationale is novel.","repair":"Conduct a scoped prior-art review covering patterned porosity, aligned channels, sacrificial templating, graded electrodes, and mechanically accommodating battery-electrode architectures before making novelty claims.","evidence_boundary":"This is an external research need; the closed packet supports no novelty conclusion."},{"priority":"MEDIUM","issue":"The proposed comparison does not yet define channel geometry, matching tolerances, primary endpoints, or acceptable penalties precisely enough to prevent post hoc interpretation.","repair":"Preregister fabrication tolerances, geometry levels, primary utilization and damage endpoints, wetting verification, exclusion rules, and maximum cohesion, safety, and volumetric-capacity penalties.","evidence_boundary":"These specifications would strengthen the test but would not supply empirical efficacy evidence."}],"repairs":[],"improvement_attribution":{"kind":"NONE","reason":"This is an original attempt with no prior candidate or repair registry for comparison; the problem and causal-lever identifiers are unchanged."},"trajectory_replacement":false,"arm_guess":"MECHANISM_PACKET","recommendation":"SUCCESS","tester_summary":"The candidate is structurally faithful, scientifically coherent, candid about uncertainty, independently falsifiable, and safely scoped for deep research. Its main unresolved boundary is novelty, which requires external prior-art review rather than inference from this packet."}