Focal and Immediate-Support Observations Can Fail to Preserve Finite-Horizon Viability in a Three-Tier Reaction Network

This preprint studies whether observations of a working subsystem and its immediate support are sufficient to determine finite-horizon viability when that support can itself be replenished from a deeper finite reserve. The model is a thermodynamically specified three-tier controlled reaction network with two independent actuator pools: restoration and coupling repair share one activity simplex, while a reversible recharge reaction has a separate bounded activity. Two preparations are constructed with identical working populations, immediate fuel inventories, coupling condition, present outputs, and original restoration–repair effectiveness values; only the deeper charged reserve differs. At horizon H=0.20, an accounting functional Z3=p1+2p2+b+g+z provides an all-policy exclusion certificate for z∈[0,0.003], while a complete interval-verified trajectory establishes viability for z∈[0.79,0.80]. Thus the same upper-two-tier observation can correspond to opposite finite-horizon continuation records. A deeper-support recharge observation O3=max⁡(0,ϕT) repairs the representation on the declared certified domain [0,0.003]∪[0.79,0.80], including a non-singleton record-homogeneous zero fiber. The result is a model-specific certified observation-failure and repair construction.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-16
DOI
https://doi.org/10.5281/zenodo.22786371
Primary Topic
Process Optimization and Integration
Type
preprint
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preprint

Focal and Immediate-Support Observations Can Fail to Preserve Finite-Horizon Viability in a Three-Tier Reaction Network

Dimitri Cerny
Zenodo (CERN European Organization for Nuclear Research)
Process Optimization and Integration
preprint

Focal and Immediate-Support Observations Can Fail to Preserve Finite-Horizon Viability in a Three-Tier Reaction Network

Dimitri Cerny
preprint en

Abstract

This preprint studies whether observations of a working subsystem and its immediate support are sufficient to determine finite-horizon viability when that support can itself be replenished from a deeper finite reserve. The model is a thermodynamically specified three-tier controlled reaction network with two independent actuator pools: restoration and coupling repair share one activity simplex, while a reversible recharge reaction has a separate bounded activity. Two preparations are constructed with identical working populations, immediate fuel inventories, coupling condition, present outputs, and original restoration–repair effectiveness values; only the deeper charged reserve differs. At horizon H=0.20, an accounting functional Z3=p1+2p2+b+g+z provides an all-policy exclusion certificate for z∈[0,0.003], while a complete interval-verified trajectory establishes viability for z∈[0.79,0.80]. Thus the same upper-two-tier observation can correspond to opposite finite-horizon continuation records. A deeper-support recharge observation O3=max⁡(0,ϕT) repairs the representation on the declared certified domain [0,0.003]∪[0.79,0.80], including a non-singleton record-homogeneous zero fiber. The result is a model-specific certified observation-failure and repair construction.

Zenodo (CERN European Organization for Nuclear Research)
Reduced inequalities
Process Optimization and Integration
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Focal and Immediate-Support Observations Can Fail to Preserve Finite-Horizon Viability in a Three-Tier Reaction Network — Dimitri Cerny · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS