Mathematical Foundations of an Emergent Constant: An Axiom-Theorem System for Constraint Network Dynamics

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Main Author: Yu, Menggang
Format: Recurso digital
Language:English
Published: Zenodo 2026
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author Yu, Menggang
author_facet Yu, Menggang
contents <p>We construct a deterministic discrete dynamical system—the Constraint Network<br>Model—defined by three axioms: energy units move at constant speed, upon<br>encounter they undergo symmetric collision, and in asymmetric encounters a<br>residual unit may merge if directional alignment occurs. The system is fully<br>formalizable in ZF set theory. We prove eight theorems: the evolution is<br>well-posed and total energy is conserved; merging is irreversible and the<br>maximum aggregate number is non-decreasing; the system must converge to a<br>steady state in finite time; the aggregate number of a saturated sealed node<br>is bounded by a sphere-covering problem; the aggregate number of a sealed<br>node must be even, and this emergent constant is uniquely determined by the<br>system parameters; an odd neighbor inevitably appears adjacent to a sealed<br>node, with conditional stability depending on the existence of a chain; the<br>sealed node is a global attractor; multiple sealed nodes can coexist, each<br>locked at the same emergent constant, connected by chains into a stable<br>network. The specific numerical value of the emergent constant is not given<br>in this paper. Its determination is deferred to subsequent work.</p>
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id zenodo_https___doi_org_10_5281_zenodo_20349678
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language eng
publishDate 2026
publisher Zenodo
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spellingShingle Mathematical Foundations of an Emergent Constant: An Axiom-Theorem System for Constraint Network Dynamics
Yu, Menggang
Constraint Network Model, emergent constant, discrete dynamical system, sphere covering, parity constraint, global attractor, mathematical foundations
<p>We construct a deterministic discrete dynamical system—the Constraint Network<br>Model—defined by three axioms: energy units move at constant speed, upon<br>encounter they undergo symmetric collision, and in asymmetric encounters a<br>residual unit may merge if directional alignment occurs. The system is fully<br>formalizable in ZF set theory. We prove eight theorems: the evolution is<br>well-posed and total energy is conserved; merging is irreversible and the<br>maximum aggregate number is non-decreasing; the system must converge to a<br>steady state in finite time; the aggregate number of a saturated sealed node<br>is bounded by a sphere-covering problem; the aggregate number of a sealed<br>node must be even, and this emergent constant is uniquely determined by the<br>system parameters; an odd neighbor inevitably appears adjacent to a sealed<br>node, with conditional stability depending on the existence of a chain; the<br>sealed node is a global attractor; multiple sealed nodes can coexist, each<br>locked at the same emergent constant, connected by chains into a stable<br>network. The specific numerical value of the emergent constant is not given<br>in this paper. Its determination is deferred to subsequent work.</p>
title Mathematical Foundations of an Emergent Constant: An Axiom-Theorem System for Constraint Network Dynamics
topic Constraint Network Model, emergent constant, discrete dynamical system, sphere covering, parity constraint, global attractor, mathematical foundations
url https://doi.org/10.5281/zenodo.20349678