Photon-Sea v1.3 Equations of Motion and Dynamical Solutions in the MyominAung Photon-Sea Theory

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Autor principal: Aung, Myomin
Formato: Recurso digital
Lenguaje:inglés
Publicado: Zenodo 2026
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author Aung, Myomin
author_facet Aung, Myomin
contents <p>This work derives and analyzes the equations of motion of the MyominAung Photon-Sea Theory from an action-based formulation. Starting from a nonlinear effective Lagrangian characterized by inverse-frequency saturation, the corresponding Euler–Lagrange equation is obtained and studied. The theory is shown to admit three physically distinct classes of solutions: a stable zero-frequency ground state, propagating wave-like excitations, and slowly varying homogeneous background solutions. These regimes naturally emerge from a single nonlinear field equation and are interpreted in terms of vacuum structure, massless excitations, and large-scale cosmological dynamics. The results establish the internal dynamical consistency of the framework and provide a foundation for further phenomenological and observational investigations.</p>
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spellingShingle Photon-Sea v1.3 Equations of Motion and Dynamical Solutions in the MyominAung Photon-Sea Theory
Aung, Myomin
Photon-Sea Theory
Nonlinear Field Theory
Euler–Lagrange Equations
Inverse-Frequency Saturation
Vacuum Ground State
Wave Excitations
Cosmological Background Solutions
Alternative Gravity Models
Theoretical Cosmology
Field-Theoretic Dynamics
<p>This work derives and analyzes the equations of motion of the MyominAung Photon-Sea Theory from an action-based formulation. Starting from a nonlinear effective Lagrangian characterized by inverse-frequency saturation, the corresponding Euler–Lagrange equation is obtained and studied. The theory is shown to admit three physically distinct classes of solutions: a stable zero-frequency ground state, propagating wave-like excitations, and slowly varying homogeneous background solutions. These regimes naturally emerge from a single nonlinear field equation and are interpreted in terms of vacuum structure, massless excitations, and large-scale cosmological dynamics. The results establish the internal dynamical consistency of the framework and provide a foundation for further phenomenological and observational investigations.</p>
title Photon-Sea v1.3 Equations of Motion and Dynamical Solutions in the MyominAung Photon-Sea Theory
topic Photon-Sea Theory
Nonlinear Field Theory
Euler–Lagrange Equations
Inverse-Frequency Saturation
Vacuum Ground State
Wave Excitations
Cosmological Background Solutions
Alternative Gravity Models
Theoretical Cosmology
Field-Theoretic Dynamics
url https://doi.org/10.5281/zenodo.18477292