The Fundamental Fields Theorem

Fuente: Zenodo
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Autor principal: Gates, Simon F.
Formato: Recurso digital
Lenguaje:inglés
Publicado: Zenodo 2026
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author Gates, Simon F.
author_facet Gates, Simon F.
contents <p>This work presents the<em> Fundamental Fields Theorem</em>, a deductive classification of classical interaction fields under the requirement of closure. Introducing a conservative, structural notion of self-contained conservation in regimes where conserved quantities are well defined, the theorem shows that any fundamental classical interaction field must be universal, self-coupled, and geometrically mediated. Within the classical domain, this uniquely isolates gravity as the only admissible closing interaction field, while all non-gravitational interaction fields are necessarily open in the stated sense.</p> <p>The result is independent of phenomenology, specific actions, or model fitting, and provides the logical foundation for the downstream <em>Gravitational Closure (Ananke) Theorem</em>.</p>
format Recurso digital
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publishDate 2026
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spellingShingle The Fundamental Fields Theorem
Gates, Simon F.
Fundamental Fields Theorem Classical Field Theory Gravitational Closure Structural Classification Conserved Quantities Symmetry and Rigidity Universality of Gravity Interaction Fields Law-Complete Theories Foundations of Gravitation
<p>This work presents the<em> Fundamental Fields Theorem</em>, a deductive classification of classical interaction fields under the requirement of closure. Introducing a conservative, structural notion of self-contained conservation in regimes where conserved quantities are well defined, the theorem shows that any fundamental classical interaction field must be universal, self-coupled, and geometrically mediated. Within the classical domain, this uniquely isolates gravity as the only admissible closing interaction field, while all non-gravitational interaction fields are necessarily open in the stated sense.</p> <p>The result is independent of phenomenology, specific actions, or model fitting, and provides the logical foundation for the downstream <em>Gravitational Closure (Ananke) Theorem</em>.</p>
title The Fundamental Fields Theorem
topic Fundamental Fields Theorem Classical Field Theory Gravitational Closure Structural Classification Conserved Quantities Symmetry and Rigidity Universality of Gravity Interaction Fields Law-Complete Theories Foundations of Gravitation
url https://doi.org/10.5281/zenodo.18387035