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Equations of Motion in the Theory of Relativistic Vector Fields

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Within the framework of the theory of relativistic vector fields, the covariant expressions are presented for the equations of motion of the matter and the field. These expressions can be written either in terms of the field tensors, that is, the fields’ strengths and solenoidal vectors, or in terms the four-potentials, that is, the fields’ scalar and vector potentials. This state of things is due to the fact that the Lagrange function initially implied the complementarity of description in terms of the strengths and the field potentials. It is shown that the equation for the fields, obtained by taking the covariant derivative in the equation for the metric, has a deeper meaning than the ordinary equation of motion of the matter, found with the help of the principle of least action. In particular, the above-mentioned equation for the fields leads to the generalized Poynting theorem, and after integration over the volume it allows us to introduce for consideration the integral vector as a measure of the energy and the fields’ energy fluxes, associated with a system of particles and fields.


International Letters of Chemistry, Physics and Astronomy (Volume 83)
S. G. Fedosin, "Equations of Motion in the Theory of Relativistic Vector Fields", International Letters of Chemistry, Physics and Astronomy, Vol. 83, pp. 12-30, 2019
Online since:
August 2019

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[1] S. Fedosin, "The potentials of the acceleration field and pressure field in rotating relativistic uniform system", Continuum Mechanics and Thermodynamics, 2021