A Finite Element Method to a Periodic Steady-State Problem for an Electromagnetic Field System Using the Space-Time Finite-Element Exterior Calculus

Masaru Miyashita , Norikazu Saito

Communications on Applied Mathematics and Computation ›› : 1 -22.

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Communications on Applied Mathematics and Computation ›› : 1 -22. DOI: 10.1007/s42967-024-00399-6
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A Finite Element Method to a Periodic Steady-State Problem for an Electromagnetic Field System Using the Space-Time Finite-Element Exterior Calculus

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Abstract

This paper proposes a finite element method for solving the periodic steady-state problem for the scalar-valued and vector-valued Poisson equations, a simple reduction model of the Maxwell equations under the Coulomb gauge. Introducing a new potential variable, we reformulate two systems composed of the scalar-valued and vector-valued Poisson problems to a single Hodge-Laplace problem for the 1-form in $\mathbb {R}^4$ using the standard de Rham complex. Consequently, we can directly apply the finite-element exterior calculus (FEEC) theory in $\mathbb {R}^4$ to deduce the well-posedness, stability, and convergence. Numerical examples using the cubical element are reported to validate the theoretical results.

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Masaru Miyashita, Norikazu Saito. A Finite Element Method to a Periodic Steady-State Problem for an Electromagnetic Field System Using the Space-Time Finite-Element Exterior Calculus. Communications on Applied Mathematics and Computation 1-22 DOI:10.1007/s42967-024-00399-6

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Japan Society for the Promotion of Science(21H0443)

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