Towards nonlinear electrodynamics without renormalization
Ho-Dong Jo, Chol-Song Kim

TL;DR
This paper introduces a nonlinear electrodynamics framework that naturally resolves divergence issues without renormalization, modifies classical potentials, and reinterprets energy in relativity to include self-fields.
Contribution
It develops a nonlinear electrodynamics theory in KR space that eliminates the need for renormalization and modifies classical electromagnetic potentials.
Findings
Total energy of a charge and its field equals mc^2
Modified Coulomb potential derived without renormalization
Radiation reaction includes nonlinear interference effects
Abstract
In this paper is considered nonlinear electrodynamics (NE) which does not satisfy the linear superposition principle (LSP). Since the presentation of the special theory of relativity, it has been commonly accepted that a famous formula E = mc^2 = m_0c^2 /(1-v^2/c^2)^(1/2) expresses the energy of a free particle only. However, while studying the experiment for the annihilation of particle and antiparticle and the production of the photon in terms of the law of energy conservation of particle and field, we obtain a conclusion that E includes not only the energy of a free particle but also the energy of its self -fields (electromagnetic field and gravitational field). Hence, a formula for the energy in the special theory of relativity comes to have a more inclusive meaning than Einstein had thought of it. Based upon such an idea and the correspondence principle, through introducing a new…
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Taxonomy
TopicsRelativity and Gravitational Theory · Quantum Mechanics and Applications · Cosmology and Gravitation Theories
