Re-Phase Vol.5.3: Pathwise Compatibility Lifting — Path Fibers, Bridge Worlds, and Nonempty-Guarded Recoverability

This volume develops Pathwise Compatibility Lifting as the finite-horizon path-space extension of the product, fiber, and projection viewpoint introduced earlier in the Re-Phase series. It separates pointwise compatible choices from pathwise compatible lifts, showing that local compatibility at each time does not necessarily form a temporally compatible path. The volume introduces path fibers, lift status, forward and backward compatibility refinements, bridge worlds, online prefix failure, live-cone obstruction, and complete but non-local infeasibility certificates. It also defines nonempty-guarded path-feature recoverability and illustrates the framework through finite witness examples, including dead-end collapse, multivalued-to-unique lifting, ambiguous but recoverable lifts, missing-cell feature narrowing, edge-correlation counterexamples, and a constant-velocity observation-thinning example. This work does not claim a new reachability algorithm, a new relational calculus, or a replacement for existing automata, CSP, filtering, or model-checking methods. Its role is to provide a Re-Phase diagnostic interface for collapse, ambiguity, feature-effective narrowing, target recoverability, and the later selector and forgetting layers.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-27
DOI
https://doi.org/10.5281/zenodo.20956125
Primary Topic
Model Reduction and Neural Networks
Type
article
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article

Re-Phase Vol.5.3: Pathwise Compatibility Lifting — Path Fibers, Bridge Worlds, and Nonempty-Guarded Recoverability

Takashi Ito
Zenodo (CERN European Organization for Nuclear Research)
Model Reduction and Neural Networks
article

Re-Phase Vol.5.3: Pathwise Compatibility Lifting — Path Fibers, Bridge Worlds, and Nonempty-Guarded Recoverability

Takashi Ito
article en

Abstract

This volume develops Pathwise Compatibility Lifting as the finite-horizon path-space extension of the product, fiber, and projection viewpoint introduced earlier in the Re-Phase series. It separates pointwise compatible choices from pathwise compatible lifts, showing that local compatibility at each time does not necessarily form a temporally compatible path. The volume introduces path fibers, lift status, forward and backward compatibility refinements, bridge worlds, online prefix failure, live-cone obstruction, and complete but non-local infeasibility certificates. It also defines nonempty-guarded path-feature recoverability and illustrates the framework through finite witness examples, including dead-end collapse, multivalued-to-unique lifting, ambiguous but recoverable lifts, missing-cell feature narrowing, edge-correlation counterexamples, and a constant-velocity observation-thinning example. This work does not claim a new reachability algorithm, a new relational calculus, or a replacement for existing automata, CSP, filtering, or model-checking methods. Its role is to provide a Re-Phase diagnostic interface for collapse, ambiguity, feature-effective narrowing, target recoverability, and the later selector and forgetting layers.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 5%
Model Reduction and Neural Networks
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Re-Phase Vol.5.3: Pathwise Compatibility Lifting — Path Fibers, Bridge Worlds, and Nonempty-Guarded Recoverability — Takashi Ito · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS