From Special Potential Relativity to General Potential Relativity: A Relativistic Quantum Formalism with Energy-Dependent Mass Renormalization

This paper introduces the LLG equation—a novel relativistic quantum mechanical framework derived from first principles of energy conservation and mass-energy-potential equivalence. The formalism features a unique energy-dependent mass renormalization m∗ = m0 1+2V/E that dynamically couples potential energy with total energy. Through rigorous mathematical derivation, we establish the equation’s Lorentz covariance, probability conservation, and correspondence principle. Experimental validation across 42 high-precision tests demonstrates unprecedented accuracy with mean deviation 0.28, outperforming the Dirac equation (2.10) and LLS equation (0.85). The LLG equation resolves long-standing anomalies in strong-field quantum systems while maintaining mathematical elegance.

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Published
2025-09-16
DOI
https://doi.org/10.33774/coe-2025-26c1h
Primary Topic
Quantum Mechanics and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

From Special Potential Relativity to General Potential Relativity: A Relativistic Quantum Formalism with Energy-Dependent Mass Renormalization

dongqi liu, shifa liu
Quantum Mechanics and Applications
article

From Special Potential Relativity to General Potential Relativity: A Relativistic Quantum Formalism with Energy-Dependent Mass Renormalization

dongqi liu, shifa liu
article en

Abstract

This paper introduces the LLG equation—a novel relativistic quantum mechanical framework derived from first principles of energy conservation and mass-energy-potential equivalence. The formalism features a unique energy-dependent mass renormalization m∗ = m0 1+2V/E that dynamically couples potential energy with total energy. Through rigorous mathematical derivation, we establish the equation’s Lorentz covariance, probability conservation, and correspondence principle. Experimental validation across 42 high-precision tests demonstrates unprecedented accuracy with mean deviation 0.28, outperforming the Dirac equation (2.10) and LLS equation (0.85). The LLG equation resolves long-standing anomalies in strong-field quantum systems while maintaining mathematical elegance.

University of North Carolina at Chapel Hill (US), Peking University (CN)
CERN, National Institute of Standards and Technology
Openalex Percentile: Top 81%
Quantum Mechanics and Applications
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