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

16 September 2025, Version 1
This content is an early or alternative research output and has not been peer-reviewed by Cambridge University Press at the time of posting.

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.

Keywords

relativistic quantum mechanics
mass renormalization
energy conservation
Dirac equation
strong-field physics

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