First Rigorous Physical Test of Viability Boundary Dynamics: An Operational Experimental Model

This article proposes the first physical test of the dynamic viability boundary hypothesis formulated within Vitology. A controlled thermal system is considered as the model object, with its state characterized by temperature, rate of temperature change, heat flux, and heat-exchange conditions. Rather than defining only a static admissible range, the proposed experiment investigates the boundary of the set of states from which the system, following a controlled disturbance, is capable of preserving specified constraints or returning to them. The approach builds upon viability theory, controlled invariance, and methods for computing viability kernels, including methods previously applied to heat-transfer models [1–3]. Keywords: Vitology, viability, viability boundary, physical test, thermal system, viability kernel, regenerative recovery, dynamic boundary.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-21
DOI
https://doi.org/10.5281/zenodo.22050641
Primary Topic
Brake Systems and Friction Analysis
Type
article
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article

First Rigorous Physical Test of Viability Boundary Dynamics: An Operational Experimental Model

Serhii Hostiunin
Zenodo (CERN European Organization for Nuclear Research)
Brake Systems and Friction Analysis
article

First Rigorous Physical Test of Viability Boundary Dynamics: An Operational Experimental Model

Serhii Hostiunin
article en

Abstract

This article proposes the first physical test of the dynamic viability boundary hypothesis formulated within Vitology. A controlled thermal system is considered as the model object, with its state characterized by temperature, rate of temperature change, heat flux, and heat-exchange conditions. Rather than defining only a static admissible range, the proposed experiment investigates the boundary of the set of states from which the system, following a controlled disturbance, is capable of preserving specified constraints or returning to them. The approach builds upon viability theory, controlled invariance, and methods for computing viability kernels, including methods previously applied to heat-transfer models [1–3]. Keywords: Vitology, viability, viability boundary, physical test, thermal system, viability kernel, regenerative recovery, dynamic boundary.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 17%
Brake Systems and Friction Analysis
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