Controlled Finite-Time Terminality: Phenomenological Transition Dynamics, Conservation Constraints, and the V0-Attribution Problem

A finite termination of the ordinary spacetime realization of a physical system is a stronger claim than non-detection, loss of selected interactions, causal disconnection, geometric incompleteness, or ordinary conversion into other spacetime-supported products. This preprint constructs and audits a minimal phenomenological candidate for a controlled finite-time terminal transition while separating event generation, physical terminality, balance closure, and attribution to V0. A source-tagged directional scalar distinguishes opposition-like from alignment-like response configurations under explicit source-identification assumptions, and a phenomenological realization variable q is assigned finite-time extinction dynamics. The paper shows that the mathematical condition q = 0 does not by itself establish physical spacetime terminality, that finite-time extinction is endpoint-sensitive, and that strict receiver-free terminality conflicts with ordinary conservation and a bounded standard local diffeomorphism-invariant closed-action architecture under the stated assumptions. Finally, a matched-model identifiability test shows that terminality does not by itself identify V0 when the V0 interpretation leaves the predictive family unchanged.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-01
DOI
https://doi.org/10.5281/zenodo.23071636
Primary Topic
Quantum Mechanics and Applications
Type
preprint
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preprint

Controlled Finite-Time Terminality: Phenomenological Transition Dynamics, Conservation Constraints, and the V0-Attribution Problem

Panasenko
Zenodo (CERN European Organization for Nuclear Research)
Quantum Mechanics and Applications
preprint

Controlled Finite-Time Terminality: Phenomenological Transition Dynamics, Conservation Constraints, and the V0-Attribution Problem

Panasenko
preprint en

Abstract

A finite termination of the ordinary spacetime realization of a physical system is a stronger claim than non-detection, loss of selected interactions, causal disconnection, geometric incompleteness, or ordinary conversion into other spacetime-supported products. This preprint constructs and audits a minimal phenomenological candidate for a controlled finite-time terminal transition while separating event generation, physical terminality, balance closure, and attribution to V0. A source-tagged directional scalar distinguishes opposition-like from alignment-like response configurations under explicit source-identification assumptions, and a phenomenological realization variable q is assigned finite-time extinction dynamics. The paper shows that the mathematical condition q = 0 does not by itself establish physical spacetime terminality, that finite-time extinction is endpoint-sensitive, and that strict receiver-free terminality conflicts with ordinary conservation and a bounded standard local diffeomorphism-invariant closed-action architecture under the stated assumptions. Finally, a matched-model identifiability test shows that terminality does not by itself identify V0 when the V0 interpretation leaves the predictive family unchanged.

Zenodo (CERN European Organization for Nuclear Research)
Life in Land
Quantum Mechanics and Applications
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Controlled Finite-Time Terminality: Phenomenological Transition Dynamics, Conservation Constraints, and the V0-Attribution Problem — Panasenko · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS