Modeling of radiating curved cables via coupled telegrapher's and Maxwell's equations

Fuente: arXiv
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Autores principales: Clemens, Markus, Günther, Michael, Reis, Timo, Skrepek, Nathanael
Formato: Preprint
Publicado: 2025
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author Clemens, Markus
Günther, Michael
Reis, Timo
Skrepek, Nathanael
author_facet Clemens, Markus
Günther, Michael
Reis, Timo
Skrepek, Nathanael
contents We investigate the electromagnetic interactions of cable harnesses in the time domain. We present a novel model that allows for curved cables, extending the standard assumptions typically made in transmission line modeling. The cables are described by the telegrapher's equations, the classical model for transmission lines, driven by input signals implemented through appropriate boundary conditions, such as imposed voltages at cable ends. The cables interact via electromagnetic radiation; the latter is determined by Maxwell's equations. This interaction is incorporated into the model through boundary conditions imposed on the electromagnetic field. The resulting coupling between the transmission lines and Maxwell's equations is energetically consistent. In particular, we show that the coupled system satisfies a global power balance.
format Preprint
id arxiv_https___arxiv_org_abs_2509_02736
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Modeling of radiating curved cables via coupled telegrapher's and Maxwell's equations
Clemens, Markus
Günther, Michael
Reis, Timo
Skrepek, Nathanael
Analysis of PDEs
Dynamical Systems
35Q61, 78A25, 78A40
We investigate the electromagnetic interactions of cable harnesses in the time domain. We present a novel model that allows for curved cables, extending the standard assumptions typically made in transmission line modeling. The cables are described by the telegrapher's equations, the classical model for transmission lines, driven by input signals implemented through appropriate boundary conditions, such as imposed voltages at cable ends. The cables interact via electromagnetic radiation; the latter is determined by Maxwell's equations. This interaction is incorporated into the model through boundary conditions imposed on the electromagnetic field. The resulting coupling between the transmission lines and Maxwell's equations is energetically consistent. In particular, we show that the coupled system satisfies a global power balance.
title Modeling of radiating curved cables via coupled telegrapher's and Maxwell's equations
topic Analysis of PDEs
Dynamical Systems
35Q61, 78A25, 78A40
url https://arxiv.org/abs/2509.02736