{"schema_version":1,"experiment_id":"eoa_inverse_innovation_exp05_complete_proposal_portfolio20_20260803","cell_id":"deadweight_loss_reduction__robotics_automation","arm":"COMPLETE_PROPOSAL_PORTFOLIO","candidate_id":"dwl_robotics_verified_redeployment_clearinghouse_p05","proposal_index":5,"version":0,"title":"Verified Clearinghouse for Redeploying Idle Industrial Robots","problem":"When a production line closes or changes, a usable industrial robot may remain assigned to its originating site's asset register until local reuse, sale, or disposal. Another site may be evaluating an automation need, yet the two cannot form a feasible transfer because asset descriptions, compatibility requirements, release authority, condition evidence, and transfer procedures are held in separate systems. The candidate problem exists when an idle asset and a compatible use could create value after inspection, adaptation, transport, and recommissioning costs, but the absence of a governed cross-site matching process prevents the pairing. It is not a claim that every idle robot should be reused or that safety approval transfers with the asset.","actors":["Sites holding idle or decommissioned robots","Sites evaluating automation needs","Automation and manufacturing engineers","Maintenance and reliability teams","Functional-safety and environmental-health-and-safety reviewers","Operational-technology and cybersecurity reviewers","Procurement and asset-management teams","Corporate finance and site controllers","Logistics providers","Robot operators and workers at a destination site","Robot vendors and system integrators"],"observable_state":"Within a bounded organization, records identify a robot that is not committed to production or contingency use and a separate automation need whose required payload, reach, duty cycle, environment, controller support, and integration horizon may overlap. Before the proposed review, the asset and need were not compared through a common compatibility dossier. Observable evidence includes asset condition and title, maintenance history, controller and firmware support, incident history, documentation completeness, destination requirements, estimated adaptation and transport work, and the disposition or procurement decision.","consequence":"A potentially usable robot can remain stored, be sold, or be disposed of while another site buys new equipment, delays automation, or retains a manual process. The organization may incur storage, procurement, adaptation, or delay costs without testing the feasible internal pairing. A poorly governed reuse mandate could instead transfer damaged, unsupported, insecure, or unsuitable equipment and shift costs or safety risks to the destination.","affected_objective":"Increase feasible, safe cross-site reuse of idle robot assets while preserving destination-specific safety validation, cybersecurity, reliability, ownership integrity, worker protections, fair access, and transparent accounting for adaptation and lifecycle costs.","intervention":"Create a bounded internal redeployment clearinghouse that pairs verified supply dossiers for idle robots with structured demand dossiers for approved feasibility studies. A supply dossier records title and release authority, model, payload, reach, axes, controller, firmware, duty history, maintenance and incident records, safety components, tooling, documentation, stored condition, vendor support, cybersecurity status, and known defects. A demand dossier records the task, environment, payload, cycle requirements, interfaces, footprint, human interaction, support horizon, and non-negotiable safety constraints. Hard compatibility filters remove infeasible pairings; independent engineers then assess remaining candidates using total landed lifecycle cost, adaptation uncertainty, schedule, reliability, and destination risk. Missing safety-critical evidence makes a candidate ineligible rather than cheaply matched. The originating site retains authority to document a legitimate contingency need, while the destination may decline a match without losing access to ordinary procurement. Any selected robot undergoes inspection, secure data handling, transport controls, destination risk assessment, guarding design, integration, commissioning, training, and acceptance under existing rules. Begin with a read-only shadow match and permit physical transfer only through an expiring, capped pilot approved by asset, safety, cybersecurity, and destination authorities.","structural_mapping":[{"archetype_element":"Distortion map","domain_realization":"The wedge is the absence of a governed cross-site clearing mechanism connecting released robot assets to compatible automation needs, compounded by incompatible records and fragmented release authority."},{"archetype_element":"Blocked mutually beneficial activity","domain_realization":"An origin could release an asset it does not need, and a destination could obtain a suitable robot at a total landed cost below its next-best feasible option, yet the pairing does not occur because neither side can identify and verify the other through the standing process."},{"archetype_element":"Protected purpose","domain_realization":"Local asset control, contingency reserves, accurate accounting, equipment-condition verification, cybersecurity, destination-specific safety engineering, and worker acceptance protect against unsuitable or unauthorized transfers."},{"archetype_element":"Protected constraint safeguard","domain_realization":"The clearinghouse does not transfer safety approval, force acceptance, presume compatibility, waive inspection, or move an asset without verified title and explicit origin and destination authorization."},{"archetype_element":"Redesign lever","domain_realization":"Introduce standardized supply and demand dossiers, hard compatibility gates, pooled matching, independent engineering review, and a defined authorization path before ordinary procurement or disposal decisions become irreversible."},{"archetype_element":"Surplus estimate","domain_realization":"Compare destination value and avoided next-best costs with inspection, adaptation, transport, integration, downtime, support, reliability, disposal, and residual-value consequences, treating uncertain compatibility conservatively."},{"archetype_element":"Affected-party incidence","domain_realization":"Origins may lose contingency assets or storage burdens; destinations may gain an option but assume integration work; central teams receive verification duties; procurement and vendors may lose planned purchases; workers retain destination-specific protections."},{"archetype_element":"Behavioral response model","domain_realization":"Monitor asset hoarding, dumping of defective equipment, understated destination requirements, inflated transfer prices, strategic demand descriptions, premature cancellation of new procurement, and pressure to accept a nominally cheaper but unsuitable match."},{"archetype_element":"Implementation boundary and rollback","domain_realization":"Limit the first clearing cycle and any transfer pilot by division, asset count, demand count, and authorization period; quarantine transferred equipment until acceptance and preserve a documented return or alternative-disposition path."}],"mechanism_mapping":[{"mechanism_slug":"distortion_reduction_review","role":"Establish that a robot is genuinely releasable, a destination need is real, and a feasible pairing is blocked by the standing cross-site process rather than by incompatibility, legitimate contingency value, or unavoidable transfer cost.","counterfactual_removal":"Without this diagnostic, ordinary stored spares, obsolete equipment, incomplete projects, or intrinsically uneconomic transfers could be mislabeled as stranded surplus."},{"mechanism_slug":"matching_improvement_program","role":"Create a pooled and compatibility-aware clearing process that translates heterogeneous asset and task descriptions into verifiable candidate pairings and anticipates withholding, dumping, and strategic descriptions.","counterfactual_removal":"Without the matching mechanism, better inventories at individual sites would still leave supply and demand siloed, while a generic listing board could surface assets without establishing compatibility."},{"mechanism_slug":"cost_benefit_assessment_protocol","role":"Evaluate each candidate on full lifecycle and welfare terms, including next-best alternatives, adaptation, inspection, transport, reliability, support, delay, safety, residual value, and incidence, with sensitivity to missing or disputed assumptions.","counterfactual_removal":"Without the protocol, book value or avoided purchase price could make a transfer appear beneficial while concealing integration expense, unreliability, unsupported components, or costs shifted to the destination."},{"mechanism_slug":"impact_assessment_table","role":"Record the origin, destination, workers, technical reviewers, procurement, finance, and support functions affected by each candidate, together with expected gains or losses, protected interests, uncertainty, and post-transfer triggers.","counterfactual_removal":"Without party-level incidence, an aggregate saving could conceal coerced acceptance, lost contingency capacity, destination workload, worker concerns, or concentrated reliability risk."},{"mechanism_slug":"regulatory_simplification_pilot","role":"Test the clearing and transfer pathway with capped exposure, unchanged destination safeguards, live monitoring, expiry, quarantine, and a defined return or alternative-disposition route.","counterfactual_removal":"Without a bounded pilot, inaccurate compatibility rules or incomplete asset histories could propagate unsuitable equipment across sites before governance and lifecycle effects are understood."}],"causal_chain":["A production change leaves a robot unused or approaching disposition at its originating site.","The asset remains represented in local financial and maintenance systems rather than in a verified cross-site compatibility format.","A destination site defines an automation need through its own engineering and procurement process, using attributes that cannot be directly compared with the origin's records.","Because supply, demand, compatibility evidence, and release authority do not meet in one process, no credible pairing reaches engineering review before storage, disposal, new procurement, or project deferral decisions proceed.","Standardized supply and demand dossiers make hard technical, lifecycle, ownership, and safety constraints comparable.","A pooled matching process filters impossible pairings and sends only plausible candidates to independent engineering and full-cost review.","Origin and destination authorities can then choose a transfer when conservative expected value exceeds all attributable transfer and lifecycle costs, while rejecting unsuitable matches without weakening safety or procurement access.","Destination-specific inspection, risk assessment, integration, commissioning, and acceptance preserve protections that cannot travel with the asset.","If a bounded pilot yields an accepted, supportable deployment without hidden cost or degraded protected outcomes, it supports the matching-wedge hypothesis; otherwise the asset remains quarantined, is returned, or follows its prior disposition path."],"baseline":"Idle robots remain under local asset ownership and are considered for local reuse, bilateral transfer through personal contacts, sale, storage, or disposal. Destination sites generally begin from a task specification and procurement process. Asset lists, maintenance histories, compatibility attributes, demand requirements, and release approvals are not assembled into a common clearing cycle. Any cross-site reuse that does occur must still pass destination-specific safety and commissioning requirements.","nearest_rivals":["Mandate reuse before new procurement: may force consideration but can compel destinations to accept poor matches and does not solve compatibility verification.","Create a searchable asset inventory: improves discovery but remains insufficient when heterogeneous records cannot be matched to task, environment, support, and safety requirements.","Use an internal auction or transfer price: can allocate known interchangeable assets but price cannot establish robot-task compatibility, condition, cybersecurity, or destination safety feasibility.","Standardize future robot purchases around fewer platforms: may reduce later incompatibility but does not connect current idle assets with current needs.","Improve bilateral transfer approvals: useful if a feasible pair is already known, but it does not thicken the pool or identify latent cross-site pairings.","Sell idle equipment and let destinations buy new robots: may be correct when no internal match clears full costs, but it does not test whether a higher-value internal use exists before disposition.","Maintain all idle robots as strategic spares: appropriate where contingency value is documented, but potentially costly when retention is automatic and the asset is not a credible spare for any active system."],"remaining_contrastive_claim":"The proposal is warranted only if standardized evidence reveals at least one technically and organizationally feasible pairing that the siloed baseline would not have advanced, and the pairing clears a conservative lifecycle comparison without relaxed protections. Its defining repair is pooled compatibility matching between persistent physical assets and task requirements; it is not a forced reuse quota, generic inventory search, auction, procurement subsidy, or abbreviated safety certification.","authority_safety":{"decision_authority":"The originating asset owner and controller authorize release; the destination operations manager accepts lifecycle responsibility; destination functional-safety and environmental-health-and-safety owners approve the integration pathway; cybersecurity approves controller data handling and supportability; and finance approves accounting treatment. No single party can compel a transfer. The destination safety owner retains unconditional authority to reject, stop, or quarantine the equipment.","authorized_first_step":"Conduct a read-only shadow clearing cycle using a capped set of assets already classified as idle or disposition candidates and automation needs already authorized for feasibility analysis. Do not reserve, transport, power, modify, purchase, sell, or dispose of equipment.","excluded_actions":["Treating the originating site's safety acceptance as valid for the destination application","Moving or energizing a robot before title, condition, cybersecurity, transport, and destination authorities approve","Classifying missing maintenance, incident, firmware, or safety records as evidence of acceptable condition","Requiring a destination to accept a match or penalizing it for choosing ordinary procurement after documented review","Releasing an asset with a substantiated contingency, legal-hold, warranty, lease, or production obligation","Using book value, purchase price, or apparent hardware similarity as the sole match criterion","Erasing controller data, logs, licenses, or configurations outside approved cybersecurity and records procedures","Bypassing destination guarding, risk assessment, commissioning, worker training, or acceptance tests","Expanding beyond the pilot limits based only on algorithmic match scores"],"halt_rollback":"Freeze the match and quarantine the asset if title is disputed, records conflict, inspection finds undisclosed damage, cybersecurity support is inadequate, adaptation scope exceeds its approved bound, destination requirements change materially, a safety reviewer rejects the integration, transport damages the equipment, or a protected monitoring signal deteriorates. Before movement, agree whether a failed candidate returns to the origin, remains in controlled storage, or enters an authorized disposition route. A powered or integrated robot returns to a safe isolated state pending destination change-control decisions; it does not automatically return to service or cross-site shipment."},"negative_tests":{"strongest_counterevidence":"Apparently idle robots are obsolete, damaged, unsupported, legally encumbered, retained for credible contingency use, or mismatched to all destination tasks once payload, reach, duty cycle, controller support, environment, integration, safety, transport, and lifecycle costs are included. Under those conditions, storage or disposition is not evidence of a matching distortion.","problem_falsifier":"The problem hypothesis fails if no releasable asset and authorized need form a feasible pair under conservative hard constraints, if existing processes already surface and evaluate every plausible pair before procurement or disposition, or if the supposed blockage is actually a shortage of suitable robots rather than failed matching.","intervention_falsifier":"The intervention hypothesis fails if independent engineers cannot reproduce matches from the dossiers, missing evidence makes candidates systematically ineligible, no shadow match clears full lifecycle costs, destinations decline matches for substantiated operational reasons, or a live transfer produces hidden adaptation, reliability, safety, cybersecurity, support, or incidence costs that overturn its case.","risks":["Origins may withhold useful assets or overstate contingency value.","Origins may list defective or burdensome equipment to avoid storage and disposal costs.","Destinations may understate requirements to obtain a nominally inexpensive robot.","Compatibility fields may omit tooling, calibration, controller, environmental, or timing dependencies.","Book-value and transfer-pricing disputes may delay otherwise feasible matches.","Transport or prolonged storage may change equipment condition after matching.","Vendor support, licenses, firmware, or spare parts may be unavailable at the destination.","Transferred controllers may expose operational data or insecure configurations.","Adaptation effort may grow after physical inspection or integration begins.","Workers may inherit unfamiliar equipment, interfaces, and maintenance practices.","A central matching score may pressure engineers to accept unsuitable pairings.","Holding assets for potential matches may delay an otherwise appropriate sale or disposal.","Repeated failed transfers may shift costs to destinations and undermine participation.","The process may favor large sites able to produce better dossiers or absorb integration uncertainty."]},"next_evidence_step":"Within one division, select no more than fifteen robots already documented as idle or disposition candidates and no more than ten automation needs already approved for feasibility analysis. Build supply and demand dossiers from existing records without contacting external markets or moving equipment. Treat missing safety-critical, ownership, maintenance, firmware, or support evidence as a hard incompatibility. Have two independent automation engineers apply prespecified compatibility gates and separately rank any surviving pairs. For each agreed candidate, prepare a conservative lifecycle comparison covering inspection, transport, adaptation, guarding, integration, commissioning, training, support, reliability, schedule, residual value, origin contingency loss, and the destination's next-best feasible option. Record disagreements and affected-party incidence. End without reserving or transferring an asset. A physical pilot is ineligible unless one pair survives both independent reviews, clears the conservative comparison, has verified release authority, and receives preliminary safety and cybersecurity acceptance for inspection only.","prior_art_status":"UNSEARCHED","diversity_from_prior_proposals":"Proposal 1 repairs nontransferable reservations for a shared robot safety-validation cell; proposal 5 does not allocate time slots or require simultaneous idle appointment capacity and queued validation demand. It matches persistent physical assets across sites using compatibility evidence. Proposal 2 changes the evidence scope required to approve robot software updates; proposal 5 leaves every software, safety, and commissioning requirement intact and instead determines whether an idle robot and a new task should reach those processes together. Proposal 3 redesigns the internal onboarding charge affecting project entry; proposal 5 does not alter prices or shared-service funding, and a candidate transfer must clear all existing accounting and cost rules. Proposal 4 reviews temporary geofences and speed caps whose hazards may have ended; proposal 5 does not modify runtime maps or retire operating constraints. It acts before redeployment by connecting released hardware supply to compatible task demand. The five proposals therefore target appointment entitlement, approval scope, entry pricing, persistence of runtime restrictions, and cross-site asset-task matching, respectively.","revision_record":{"parent_version":null,"progress_targets_addressed":["Generate one additional complete candidate at proposal index 5","Address a materially different problem from proposals 1 through 4","Use a distinct compatibility-matching intervention and asset-redeployment causal path","Preserve destination safety, cybersecurity, ownership, reliability, and worker protections","Specify actors, incidence, authority, monitoring, rollback, rivals, falsifiers, and bounded evidence","Explain diversity from every earlier sealed proposal"],"conceptual_changes":["Initial version; located the avoidable wedge in the failure to connect releasable robot assets with compatible task requirements across organizational silos.","Distinguished latent feasible matching from raw scarcity, generic search, forced reuse, and intrinsically uneconomic transfer.","Treated safety approval as destination-specific and nontransferable."],"operational_changes":["Initial version; specified verified supply and demand dossiers, hard compatibility gates, independent engineering review, full lifecycle assessment, voluntary bilateral authorization, capped pilot scope, quarantine, and return or disposition rules."],"evidence_changes":["Initial version; bounded first evidence to a read-only shadow clearing cycle for capped asset and demand sets, with missing critical evidence treated conservatively as incompatibility."],"claim_changes":["No novelty, prevalence, demand, or effect-size claim is made.","The candidate is conditional on finding a feasible pair that the baseline would not advance and that clears conservative lifecycle and protection tests.","Prior art remains unsearched."]}}