The Relational Universe - Rhythm Field Theory

Rhythm Field Theory (RFT) v17.2 presents a unified geometric framework for physics based on the dynamics of a single scalar field, the rhythm field , whose gradients, closures, and topological structures generate all known physical phenomena. This release consolidates the full theoretical canon into a coherent, generationally documented reference, integrating foundational principles, mathematical formalism, particle topology, gauge geometry, cosmology, quantization, and computational methods.RFT replaces particle ontology with closed rhythm manifolds—geometric loops, Möbius structures, triple‑twist closures, and higher‑dimensional simplices—whose identity is determined by winding number, holonomy, and internal curvature. Gauge interactions arise from rhythm gradients: twist (electromagnetism), torsion (strong force), twist‑release (weak force), and curvature (gravity). These modes are formalized as connections on a rhythm fiber bundle, with unification emerging from symmetry convergence at high rhythm.The theory provides a complete operator algebra, path‑integral formulation, perturbation theory, renormalization group flow, and soliton classification. Cosmological solutions include rhythm‑driven expansion, inflation, horizon formation, and structure growth. Information‑theoretic structures describe causal encoding, coherence, and holographic rhythm boundaries. Numerical methods and simulation frameworks support lattice evolution, soliton tracking, scattering experiments, and cosmological modeling.Version 17.2 includes the full suite of appendices (A–W), covering:• foundational definitions and metric structure• rhythm gradients and gauge bosons• topology of closed manifolds• causal cones and null propagation• quantization and spectral theory• operator algebra and Noether currents• gauge geometry and fiber‑bundle structure• perturbation theory and scattering• renormalization and scale flow• solitons and topological defects• thermodynamics and entropy geometry• information theory and causal encoding• numerical simulation methods• cosmological solutions• curved internal rhythm spacesThis version represents the most complete and editorially mature presentation of Rhythm Field Theory to date, designed for long‑term preservation, scholarly reference, and generational transmission. It provides a unified mathematical backbone, didactical clarity, and a consistent geometric language intended for physicists, mathematicians, and interdisciplinary researchers exploring alternative formulations of fundamental physics.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-27
DOI
https://doi.org/10.5281/zenodo.18065429
Primary Topic
Earth Systems and Cosmic Evolution
Type
article
Field-Weighted Citation Impact
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article

The Relational Universe - Rhythm Field Theory

Vilmos Kokol
Zenodo (CERN European Organization for Nuclear Research)
Earth Systems and Cosmic Evolution
article

The Relational Universe - Rhythm Field Theory

Vilmos Kokol
article en

Abstract

Rhythm Field Theory (RFT) v17.2 presents a unified geometric framework for physics based on the dynamics of a single scalar field, the rhythm field , whose gradients, closures, and topological structures generate all known physical phenomena. This release consolidates the full theoretical canon into a coherent, generationally documented reference, integrating foundational principles, mathematical formalism, particle topology, gauge geometry, cosmology, quantization, and computational methods.RFT replaces particle ontology with closed rhythm manifolds—geometric loops, Möbius structures, triple‑twist closures, and higher‑dimensional simplices—whose identity is determined by winding number, holonomy, and internal curvature. Gauge interactions arise from rhythm gradients: twist (electromagnetism), torsion (strong force), twist‑release (weak force), and curvature (gravity). These modes are formalized as connections on a rhythm fiber bundle, with unification emerging from symmetry convergence at high rhythm.The theory provides a complete operator algebra, path‑integral formulation, perturbation theory, renormalization group flow, and soliton classification. Cosmological solutions include rhythm‑driven expansion, inflation, horizon formation, and structure growth. Information‑theoretic structures describe causal encoding, coherence, and holographic rhythm boundaries. Numerical methods and simulation frameworks support lattice evolution, soliton tracking, scattering experiments, and cosmological modeling.Version 17.2 includes the full suite of appendices (A–W), covering:• foundational definitions and metric structure• rhythm gradients and gauge bosons• topology of closed manifolds• causal cones and null propagation• quantization and spectral theory• operator algebra and Noether currents• gauge geometry and fiber‑bundle structure• perturbation theory and scattering• renormalization and scale flow• solitons and topological defects• thermodynamics and entropy geometry• information theory and causal encoding• numerical simulation methods• cosmological solutions• curved internal rhythm spacesThis version represents the most complete and editorially mature presentation of Rhythm Field Theory to date, designed for long‑term preservation, scholarly reference, and generational transmission. It provides a unified mathematical backbone, didactical clarity, and a consistent geometric language intended for physicists, mathematicians, and interdisciplinary researchers exploring alternative formulations of fundamental physics.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 32%
Earth Systems and Cosmic Evolution
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