Relational Consistency as the Origin of Motion and Persistence

This paper reinterprets motion, within a relational framework based on pregeometric connectivity, not as a change in the position of an object within an already existing space, but as a state update that resolves or transports relational inconsistency. In previous work, the connection CAB={A,B} was introduced as a primitive relation prior to distance, with a spatial quantum ℓ0 emerging from interaction and a temporal quantum τ0 from updates of connection states. The Persistence Principle was also proposed, according to which relations capable of self-consistent updating persist. Here, this principle is extended to dynamics by defining a relational equilibrium state specific to each energy layer. A deviation from equilibrium is called relational inconsistency, and an update that reduces such inconsistency or transports it to neighboring relations is interpreted as motion. This framework may allow static relaxation, wave propagation, translation of stable structures, and inertia to be organized as different forms of the same relational updating process. The present discussion is a constructive principle rather than a completed derivation of Newtonian mechanics or relativity. Its purpose is to clarify the pregeometric foundation of motion before addressing action, conservation laws, and transformations between relative descriptions. Keywords: pregeometry, relational consistency, motion, persistence, equilibrium, energy layer

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-10
DOI
https://doi.org/10.5281/zenodo.22694481
Primary Topic
Algebraic and Geometric Analysis
Type
article
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article

Relational Consistency as the Origin of Motion and Persistence

Hidemi Munakata
Zenodo (CERN European Organization for Nuclear Research)
Algebraic and Geometric Analysis
article

Relational Consistency as the Origin of Motion and Persistence

Hidemi Munakata
article en

Abstract

This paper reinterprets motion, within a relational framework based on pregeometric connectivity, not as a change in the position of an object within an already existing space, but as a state update that resolves or transports relational inconsistency. In previous work, the connection CAB={A,B} was introduced as a primitive relation prior to distance, with a spatial quantum ℓ0 emerging from interaction and a temporal quantum τ0 from updates of connection states. The Persistence Principle was also proposed, according to which relations capable of self-consistent updating persist. Here, this principle is extended to dynamics by defining a relational equilibrium state specific to each energy layer. A deviation from equilibrium is called relational inconsistency, and an update that reduces such inconsistency or transports it to neighboring relations is interpreted as motion. This framework may allow static relaxation, wave propagation, translation of stable structures, and inertia to be organized as different forms of the same relational updating process. The present discussion is a constructive principle rather than a completed derivation of Newtonian mechanics or relativity. Its purpose is to clarify the pregeometric foundation of motion before addressing action, conservation laws, and transformations between relative descriptions. Keywords: pregeometry, relational consistency, motion, persistence, equilibrium, energy layer

Zenodo (CERN European Organization for Nuclear Research)
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Algebraic and Geometric Analysis
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