The Dynamic Oscillatory Coherence (DOC) Framework: A Unified Model for Quantum, Classical, and Cosmological Phenomena

The Dynamic Oscillatory Coherence (DOC) framework introduces a novel approach to understanding quantum and classical physics, as well as symmetry-breaking phenomena, through a fundamental reformulation of the spinor in the complex number plane. This work presents a comprehensive foundation for the framework, including three independent derivations of the core coherence function from first principles. At its core, the DOC framework posits that space, time, forces, and particles emerge naturally as manifestations of the alignment or misalignment of a unifying coherence function. This structure bridges quantum and classical physics, offering new insights into symmetry breaking in both mathematical and physical systems. The framework has the potential to provide new explanations for dark matter-like phenomena, dark energy, particle anomalies, and a refined model of the Big Bang and cosmic inflation. Additionally, it offers a novel perspective on the Higgs mechanism, redefining it as an eigenstate of a spinor network, leading to new interpretations of superconductivity, particle physics, and the fundamental nature of mass and inertia. By reframing fundamental physics through coherence principles, the DOC framework presents a unified, predictive model that challenges conventional paradigms while opening pathways for new discoveries in fundamental physics.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-03-01
DOI
https://doi.org/10.5281/zenodo.14948386
Primary Topic
Algebraic and Geometric Analysis
Type
article
Field-Weighted Citation Impact
0.00
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article

The Dynamic Oscillatory Coherence (DOC) Framework: A Unified Model for Quantum, Classical, and Cosmological Phenomena

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

The Dynamic Oscillatory Coherence (DOC) Framework: A Unified Model for Quantum, Classical, and Cosmological Phenomena

article en

Abstract

The Dynamic Oscillatory Coherence (DOC) framework introduces a novel approach to understanding quantum and classical physics, as well as symmetry-breaking phenomena, through a fundamental reformulation of the spinor in the complex number plane. This work presents a comprehensive foundation for the framework, including three independent derivations of the core coherence function from first principles. At its core, the DOC framework posits that space, time, forces, and particles emerge naturally as manifestations of the alignment or misalignment of a unifying coherence function. This structure bridges quantum and classical physics, offering new insights into symmetry breaking in both mathematical and physical systems. The framework has the potential to provide new explanations for dark matter-like phenomena, dark energy, particle anomalies, and a refined model of the Big Bang and cosmic inflation. Additionally, it offers a novel perspective on the Higgs mechanism, redefining it as an eigenstate of a spinor network, leading to new interpretations of superconductivity, particle physics, and the fundamental nature of mass and inertia. By reframing fundamental physics through coherence principles, the DOC framework presents a unified, predictive model that challenges conventional paradigms while opening pathways for new discoveries in fundamental physics.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 42%
Algebraic and Geometric Analysis
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