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On Two Complementary Types of Total Time Derivative in Classical Field Theories and Maxwell’s Equations

Abstract

Close insight into mathematical and conceptual structure of classical field theories shows serious inconsistencies in their common basis. In other words, we claim in this work to have come across two severe mathematical blunders in the very foundations of theoretical hydrodynamics. One of the defects concerns the traditional treatment of time derivatives in Eulerian hydrodynamic description. The other one resides in the conventional demonstration of the so-called Convection Theorem. Both approaches are thought to be necessary for cross-verification of the standard differential form of continuity equation. Any revision of these fundamental results might have important implications for all classical field theories. Rigorous reconsideration of time derivatives in Eulerian description shows that it evokes Minkowski metric for any flow field domain without any previous postulation. Mathematical approach is developed within the framework of congruences for general four-dimensional differentiable manifold and the final result is formulated in form of a theorem. A modified version of the Convection Theorem provides a necessary cross-verification for a reconsidered differential form of continuity equation. Although the approach is developed for one-component (scalar) flow field, it can be easily generalized to any tensor field. Some possible implications for classical electrodynamics are also explored.

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Correspondence to R. Smirnov-Rueda.

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Smirnov-Rueda, R. On Two Complementary Types of Total Time Derivative in Classical Field Theories and Maxwell’s Equations. Found Phys 35, 1695–1723 (2005). https://doi.org/10.1007/s10701-005-6515-8

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Keywords

  • final Cauchy problem
  • continuity equation
  • convection theorem
  • fluid quantity
  • Maxwell’s equations