4 - Microphysical Constraints, Mode Structure, and Measurement in an Effective Phase–Based Medium

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1. Verfasser: Jublot, Thomas
Format: Recurso digital
Sprache:Englisch
Veröffentlicht: Zenodo 2026
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author Jublot, Thomas
author_facet Jublot, Thomas
contents <p>This work extends a phase-based effective framework in which relativistic dynamics and particle properties emerge from phase propagation in an effective medium. Previous companion papers established a phase-invariant kinematics with anisotropic dispersion and an optical–mechanical Hamiltonian formulation reproducing weak-field Schwarzschild dynamics and slow-rotation Kerr effects.</p> <p>The present paper explores several conceptual and microphysical implications of this framework. A minimal radial eigenmode problem is introduced to describe localized excitations of the phase-rigidity medium, providing a possible interpretation of particle species as admissible bound modes. Electromagnetic coupling is shown to follow naturally from local phase-convention invariance, leading to the standard minimal substitution and Lorentz-force dynamics in the eikonal regime.</p> <p>The work also proposes a realist interpretation of measurement and quantum correlations: measurement acts as a local constraint on admissible phase configurations rather than a dynamical collapse, while Bell-type correlations arise from the joint compatibility of local constraints with a single global phase configuration. The framework clarifies which aspects are fixed by the effective theory and which remain open microphysical inputs.</p>
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spellingShingle 4 - Microphysical Constraints, Mode Structure, and Measurement in an Effective Phase–Based Medium
Jublot, Thomas
phase-based dynamics
optical–mechanical correspondence
Hamilton–Jacobi formulation
effective medium theory
anisotropic dispersion
weak-field gravity
phase rigidity
emergent particle modes
gauge invariance
measurement problem
Bell inequalities
realist quantum interpretation
<p>This work extends a phase-based effective framework in which relativistic dynamics and particle properties emerge from phase propagation in an effective medium. Previous companion papers established a phase-invariant kinematics with anisotropic dispersion and an optical–mechanical Hamiltonian formulation reproducing weak-field Schwarzschild dynamics and slow-rotation Kerr effects.</p> <p>The present paper explores several conceptual and microphysical implications of this framework. A minimal radial eigenmode problem is introduced to describe localized excitations of the phase-rigidity medium, providing a possible interpretation of particle species as admissible bound modes. Electromagnetic coupling is shown to follow naturally from local phase-convention invariance, leading to the standard minimal substitution and Lorentz-force dynamics in the eikonal regime.</p> <p>The work also proposes a realist interpretation of measurement and quantum correlations: measurement acts as a local constraint on admissible phase configurations rather than a dynamical collapse, while Bell-type correlations arise from the joint compatibility of local constraints with a single global phase configuration. The framework clarifies which aspects are fixed by the effective theory and which remain open microphysical inputs.</p>
title 4 - Microphysical Constraints, Mode Structure, and Measurement in an Effective Phase–Based Medium
topic phase-based dynamics
optical–mechanical correspondence
Hamilton–Jacobi formulation
effective medium theory
anisotropic dispersion
weak-field gravity
phase rigidity
emergent particle modes
gauge invariance
measurement problem
Bell inequalities
realist quantum interpretation
url https://doi.org/10.5281/zenodo.18929045