A Theoretical Reformulation of "Matter as Compressed Light": A Testable Field-Theoretic Hypothesis and Derivation of a Nonlinear Electromagnetic Model

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Autor principal: Chahal, Kuldip Singh
Formato: Recurso digital
Lenguaje:inglés
Publicado: Zenodo 2025
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author Chahal, Kuldip Singh
author_facet Chahal, Kuldip Singh
contents <p>A longstanding speculative claim proposes that matter may represent a localized, high-density state of electromagnetic energy. In this paper we convert this qualitative idea into a mathematically explicit, falsifiable hypothesis. We construct a dimensionful Lagrangian density in which a scalar compression field χ modulates the local effective refractive index and the electromagnetic stress–energy tensor. This induces nonlinear self-coupling of the electromagnetic field that supports stationary, soliton-like energy concentrations. We nondimensionalize the model, derive the resulting Euler–Lagrange equations, identify conserved quantities, and outline numerical experiments capable of refuting or confirming the existence of stable, localized solutions with rest-energy E= mc2. The formulation is compatible with special relativity and standard Maxwell theory in the weak-field limit and establishes a clear experimental path for evaluating the viability of this hypothesis.</p>
format Recurso digital
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spellingShingle A Theoretical Reformulation of "Matter as Compressed Light": A Testable Field-Theoretic Hypothesis and Derivation of a Nonlinear Electromagnetic Model
Chahal, Kuldip Singh
electromagnetic energy
matter as compressed light
nonlinear Maxwell theory
scalar compression field
soliton solutions
Euler-Lagrange equations
nondimensionalization
falsifiable hypothesis
vacuum refractive index
Schwinger pair-production
<p>A longstanding speculative claim proposes that matter may represent a localized, high-density state of electromagnetic energy. In this paper we convert this qualitative idea into a mathematically explicit, falsifiable hypothesis. We construct a dimensionful Lagrangian density in which a scalar compression field χ modulates the local effective refractive index and the electromagnetic stress–energy tensor. This induces nonlinear self-coupling of the electromagnetic field that supports stationary, soliton-like energy concentrations. We nondimensionalize the model, derive the resulting Euler–Lagrange equations, identify conserved quantities, and outline numerical experiments capable of refuting or confirming the existence of stable, localized solutions with rest-energy E= mc2. The formulation is compatible with special relativity and standard Maxwell theory in the weak-field limit and establishes a clear experimental path for evaluating the viability of this hypothesis.</p>
title A Theoretical Reformulation of "Matter as Compressed Light": A Testable Field-Theoretic Hypothesis and Derivation of a Nonlinear Electromagnetic Model
topic electromagnetic energy
matter as compressed light
nonlinear Maxwell theory
scalar compression field
soliton solutions
Euler-Lagrange equations
nondimensionalization
falsifiable hypothesis
vacuum refractive index
Schwinger pair-production
url https://doi.org/10.5281/zenodo.17727307