{"schema_version":1,"experiment_id":"eoa_inverse_innovation_exp05_complete_proposal_portfolio20_20260803","cell_id":"layer_decay_and_expiration_management__physics","portfolio_valid":true,"proposal_assessments":[{"proposal_index":1,"complete":true,"causally_faithful":true,"materially_distinct":true,"reason":"Operationally complete and faithful: shot-deposited films accumulate on identified shields, optical validity and preservation value change, and condition review, dependency gates, quarantine, differentiated disposition, and tombstones bound the stack without erasing reconstruction evidence."},{"proposal_index":2,"complete":true,"causally_faithful":true,"materially_distinct":true,"reason":"Operationally complete and faithful: sequential Markov-chain configurations acquire divergent statistical, restart, and reconstruction value, and a configuration-specific lifecycle separates ensemble authority from tiering, archival, reversible deletion, and lineage preservation."},{"proposal_index":3,"complete":true,"causally_faithful":true,"materially_distinct":true,"reason":"Operationally complete and faithful: successive calibration payloads can retain default authority after their validated context expires, and bounded authority leases trigger review while dependency-aware archival preserves exact historical correction stacks."},{"proposal_index":4,"complete":true,"causally_faithful":true,"materially_distinct":true,"reason":"Operationally complete and faithful: sequentially accessioned irradiated specimens and aliquots change in accessibility, remaining mass, and scientific value, and specimen-level custody, reserves, dependency checks, quarantine, retrieval tests, and mass-balance tombstones govern their lifecycle."},{"proposal_index":5,"complete":true,"causally_faithful":true,"materially_distinct":true,"reason":"Operationally complete and faithful: time-ordered waveform chunks exceed a hard active-capacity budget and gain retrospective value after later events, while bounded pins, eligible-victim eviction, generational rotation, dependency checks, archival tests, and gap markers manage expiration."}],"pairwise_assessments":[{"proposal_a":1,"proposal_b":2,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 1 controls physical debris films that alter an optical transfer function through shield measurement and carrier handling; proposal 2 controls digital simulation configurations through statistical qualification, restart-aware retention, and executable restoration."},{"proposal_a":1,"proposal_b":3,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 1 responds to accumulating matter and calibration drift by replacing, quarantining, cleaning, or preserving physical carriers; proposal 3 prevents stale digital corrections from resolving by default through expiring authority leases and historical-stack preservation."},{"proposal_a":1,"proposal_b":4,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 1 renews an operating optical path whose shield accumulates shot debris; proposal 4 governs already accessioned, finite irradiated specimens through custody tiers, aliquot reserves, controlled consumption, and disposal."},{"proposal_a":1,"proposal_b":5,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 1 manages condition-dependent retirement of contaminated physical shields; proposal 5 makes immediate admission and eviction decisions for digital waveform chunks while preserving retrospectively identified precursor windows."},{"proposal_a":2,"proposal_b":3,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 2 separates a raw configuration's statistical ensemble membership from storage and restart value; proposal 3 separates a calibration payload's default resolver authority from byte retention using validity leases."},{"proposal_a":2,"proposal_b":4,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 2 governs reproducible digital field states using ensemble manifests, storage tiers, and restart dependencies; proposal 4 governs finite physical material using custody controls, remaining-mass accounting, protected aliquots, and destructive-use decisions."},{"proposal_a":2,"proposal_b":5,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 2 curates completed simulation configurations after statistical and reconstruction value diverge; proposal 5 operates during continuous acquisition, using delayed-event pins and pressure-triggered eviction before waveform chunks disappear."},{"proposal_a":3,"proposal_b":4,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 3 expires the executable authority of digital detector corrections while retaining historical stacks; proposal 4 allocates and retires decay-transformed physical specimens whose mass can be consumed and cannot be digitally restored."},{"proposal_a":3,"proposal_b":5,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 3 uses leases to stop obsolete payloads from resolving for detector states; proposal 5 uses TTLs and bounded event pins to control byte residency and precursor capture under an immediate capacity ceiling."},{"proposal_a":4,"proposal_b":5,"same_problem":false,"same_intervention":false,"independent_opportunity":true,"key_difference":"Proposal 4 manages long-lived physical specimen custody, aliquot lineage, handling state, and irreversible consumption; proposal 5 manages ephemeral digital chunks through real-time eviction, cross-channel event bundling, and explicit interval gaps."}],"replacement_indices":[],"rationale":"All five proposals specify observable accumulated layers, explicit lifecycle states and triggers, dependency and exception controls, differentiated reversible or archival dispositions, surviving lineage evidence, bounded authority, falsifiers, and safe evidence steps. Their affected problems, operative interventions, and causal paths are pairwise distinct: contaminated optical carriers, statistical simulation states, calibration-resolution authority, finite irradiated specimens, and real-time diagnostic-buffer chunks. Shared lifecycle mechanisms implement the common archetype but do not collapse any pair into the same opportunity."}