A Geometric Framework for a Universal Scalar Field in 10 Dimensions

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Autor principal: riviere, christophe
Formato: Recurso digital
Lenguaje:inglés
Publicado: Zenodo 2025
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author riviere, christophe
author_facet riviere, christophe
contents <p>This work proposes a new way to understand the fundamental laws of physics by describing the Universe as a richer geometric structure than ordinary space-time. Instead of the usual four dimensions (three of space and one of time), the model introduces a six-dimensional compact internal geometry, which together with our observable space forms a <strong>10-dimensional framework</strong>.</p> <p>At the heart of this approach lies the <strong>Planck Field (Champ P)</strong>, a universal scalar field defined on the compact manifold<br>Σ=(S3×S3)/Z3<br>This field, together with the internal geometry, provides a common foundation for describing gravitation, quantum phenomena, decoherence, and even certain thermodynamic properties.</p> <p>In this picture, particles of the Standard Model are no longer seen as “fundamental” objects but as topological manifestations of the structure of Σ. The three fermionic generations emerge naturally from the topology of the vacuum, while the internal dynamics—especially the time evolution of the internal radius RΣ(t)R_\Sigma(t)RΣ(t)—influence gravity, vacuum energy, and several cosmological effects.</p> <p>By combining ideas from the Caldeira–Leggett formalism, Lindblad dynamics, and the Wheeler–DeWitt equation, the Planck Field offers a unified description of interactions between matter, energy, and geometry.<br>This framework opens new perspectives on dark matter, vacuum fluctuations, the origin of time, and the deep structure of the Universe, while being governed by a <strong>single fundamental constant</strong>, at the next update, a length scale L0from which all physical scales originate.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_17659117
institution Zenodo
language eng
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle A Geometric Framework for a Universal Scalar Field in 10 Dimensions
riviere, christophe
Quantum Theory
Topology
Physics
Mathematical physics
Particle physics
Atomic physics
Quantum computers
Physical cosmology
<p>This work proposes a new way to understand the fundamental laws of physics by describing the Universe as a richer geometric structure than ordinary space-time. Instead of the usual four dimensions (three of space and one of time), the model introduces a six-dimensional compact internal geometry, which together with our observable space forms a <strong>10-dimensional framework</strong>.</p> <p>At the heart of this approach lies the <strong>Planck Field (Champ P)</strong>, a universal scalar field defined on the compact manifold<br>Σ=(S3×S3)/Z3<br>This field, together with the internal geometry, provides a common foundation for describing gravitation, quantum phenomena, decoherence, and even certain thermodynamic properties.</p> <p>In this picture, particles of the Standard Model are no longer seen as “fundamental” objects but as topological manifestations of the structure of Σ. The three fermionic generations emerge naturally from the topology of the vacuum, while the internal dynamics—especially the time evolution of the internal radius RΣ(t)R_\Sigma(t)RΣ(t)—influence gravity, vacuum energy, and several cosmological effects.</p> <p>By combining ideas from the Caldeira–Leggett formalism, Lindblad dynamics, and the Wheeler–DeWitt equation, the Planck Field offers a unified description of interactions between matter, energy, and geometry.<br>This framework opens new perspectives on dark matter, vacuum fluctuations, the origin of time, and the deep structure of the Universe, while being governed by a <strong>single fundamental constant</strong>, at the next update, a length scale L0from which all physical scales originate.</p>
title A Geometric Framework for a Universal Scalar Field in 10 Dimensions
topic Quantum Theory
Topology
Physics
Mathematical physics
Particle physics
Atomic physics
Quantum computers
Physical cosmology
url https://doi.org/10.5281/zenodo.17659117