In the second part of this series of papers we consider highly oscillatory media. In this situation, the need for a triangulation that resolves all microscopic details of the medium makes standard edge finite elements impractical because of the resulting tremendous computational load. On the other hand, undersampling by using a coarse mesh might lead to inaccurate results. To overcome these diffculties and to improve the ratio between accuracy and computational costs, homogenization techniques can be used. In this paper we recall analytical homogenization results and propose a novel numerical homogenization scheme for Maxwell\u27s equations in frequency domain. This scheme follows the design principles of heterogeneous multiscale methods. W...
We develop an essentially optimal numerical method for solving two-scale Maxwell wave equations in a...
We propose a Finite Element Heterogeneous Multiscale Method (FEHMM) for time dependent Maxwell’s equ...
In this work, we address time dependent wave propagation problems with strong multiscale features (i...
International audienceIn the second part of this series of papers we consider highly oscillatory med...
Solving multiscale partial differential equations is exceedingly complex. Traditional methods have t...
This paper is devoted to the homogenization of the Maxwell equations with periodically oscillating c...
We present a Finite Element Heterogeneous Multiscale Method (FE-HMM) for time-dependent Maxwell’s eq...
In this work, we apply the finite element heterogeneous multiscale method to a class of dispersive f...
In this work, we apply the finite element heterogeneous multiscale method to a class of dispersive f...
We consider multiscale Maxwell-type equations in a domain D C Rd (d = 2, 3), which depend on n micro...
summary:The Maxwell equations in a heterogeneous medium are studied. Nguetseng’s method of two-scale...
A finite element heterogeneous multiscale method (FE-HMM) is proposed for the wave equation with hig...
Abstract: When the wavelength is much larger than the typical scale of the microstructure in a mater...
summary:The Maxwell equations with uniformly monotone nonlinear electric conductivity in a heterogen...
This thesis studies the propagation of electromagnetic waves in heterogeneous structures such as met...
We develop an essentially optimal numerical method for solving two-scale Maxwell wave equations in a...
We propose a Finite Element Heterogeneous Multiscale Method (FEHMM) for time dependent Maxwell’s equ...
In this work, we address time dependent wave propagation problems with strong multiscale features (i...
International audienceIn the second part of this series of papers we consider highly oscillatory med...
Solving multiscale partial differential equations is exceedingly complex. Traditional methods have t...
This paper is devoted to the homogenization of the Maxwell equations with periodically oscillating c...
We present a Finite Element Heterogeneous Multiscale Method (FE-HMM) for time-dependent Maxwell’s eq...
In this work, we apply the finite element heterogeneous multiscale method to a class of dispersive f...
In this work, we apply the finite element heterogeneous multiscale method to a class of dispersive f...
We consider multiscale Maxwell-type equations in a domain D C Rd (d = 2, 3), which depend on n micro...
summary:The Maxwell equations in a heterogeneous medium are studied. Nguetseng’s method of two-scale...
A finite element heterogeneous multiscale method (FE-HMM) is proposed for the wave equation with hig...
Abstract: When the wavelength is much larger than the typical scale of the microstructure in a mater...
summary:The Maxwell equations with uniformly monotone nonlinear electric conductivity in a heterogen...
This thesis studies the propagation of electromagnetic waves in heterogeneous structures such as met...
We develop an essentially optimal numerical method for solving two-scale Maxwell wave equations in a...
We propose a Finite Element Heterogeneous Multiscale Method (FEHMM) for time dependent Maxwell’s equ...
In this work, we address time dependent wave propagation problems with strong multiscale features (i...