Lagrangian formulation of electromagnetic fields in nondispersive medium by means of the extended Euler-Lagrange differential equation

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Date

2008

Authors

Cem Civelek
Thomas Franz Bechteler

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Volume Title

Publisher

Pergamon-Elsevier Science Ltd

Open Access Color

Green Open Access

Yes

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Top 10%
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Abstract

This work is concerned with the Lagrangian formulation of electromagnetic fields. Here the extended Euler-Lagrange differential equation for continuous nondispersive media is employed. The Lagrangian density for electromagnetic fields is extended to derive all four Maxwell's equations by means of electric and magnetic potentials. For the first time ohmic losses for time and space variant fields are included. Therefore a dissipation density function with time dependent and gradient dependent terms is developed. Both the Lagrangian density and the dissipation density functions obey the extended Euler-Lagrange differential equation. Finally two examples demonstrate the advantage of describing interacting physical systems by a single Lagrangian density. © 2008 Elsevier Ltd. All rights reserved. © 2008 Elsevier B.V. All rights reserved.

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Keywords

Electromagnetic Potentials, Euler-lagrange Differential Equation, Lagrangian Density, Maxwell's Equations, Electric Fields, Electromagnetic Field Measurement, Electromagnetic Fields, Electromagnetic Waves, Electromagnetism, Euler Equations, Lagrange Multipliers, Magnetic Materials, Probability Density Function, Density Functions, Electromagnetic Potentials, Euler-lagrange Differential Equation, Lag Ranges, Lagrangian Densities, Lagrangian Density, Lagrangian Formulations, Magnetic Potentials, Maxwell's Equations, Ohmic Losses, Physical Systems, Time Dependents, Maxwell Equations, Electric fields, Electromagnetic field measurement, Electromagnetic fields, Electromagnetic waves, Electromagnetism, Euler equations, Lagrange multipliers, Magnetic materials, Probability density function, Density functions, Electromagnetic potentials, Euler-Lagrange differential equation, Lag ranges, Lagrangian densities, Lagrangian density, Lagrangian formulations, Magnetic potentials, Maxwell's equations, Ohmic losses, Physical systems, Time dependents, Maxwell equations, Electromagnetic Potentials, Euler-Lagrange Differential Equation, Maxwell’s Equations, Lagrangian Density, Maxwell's equations, Electromagnetic theory (general), Euler-Lagrange differential equation, Lagrangian density, electromagnetic potentials

Fields of Science

0103 physical sciences, 0202 electrical engineering, electronic engineering, information engineering, 02 engineering and technology, 01 natural sciences

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OpenCitations Citation Count
7

Source

International Journal of Engineering Science

Volume

46

Issue

12

Start Page

1218

End Page

1227
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CrossRef : 3

Scopus : 9

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Mendeley Readers : 16

SCOPUS™ Citations

9

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Web of Science™ Citations

6

checked on Apr 09, 2026

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