We combine surface integral equations with domain decomposition to formulate and (numerically) solve the problem of electromagnetic (EM) wave propagation inside finite-sized structures. The approach is of interest for (but not limited to) the analysis of devices based on the phenomenon of electromagnetic band gaps (EBG). The key feature of our strategy, already known as linear embedding via Green's operators (LEGO), is the modelling of the structure of concern by means of passive and newly devised active (generator) EM bricks. We elucidate how LEGO is practically applied with a few numerical examples that involve EBG-based waveguides
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a methodology based on the Linear Embedding via Green’s Operators (LEGO) and the Eigencur...
We propose a methodology based on the Linear Embedding via Green’s Operators (LEGO) and the Eigencur...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
The calculation of electromagnetic (EM) fields and waves inside finite-sized structures comprised of...
The calculation of electromagnetic (EM) fields and waves inside finite-sized structures comprised of...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a methodology based on the Linear Embedding via Green’s Operators (LEGO) and the Eigencur...
We propose a methodology based on the Linear Embedding via Green’s Operators (LEGO) and the Eigencur...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
We combine surface integral equations with domain decomposition to formulate and (numerically) solve...
The calculation of electromagnetic (EM) fields and waves inside finite-sized structures comprised of...
The calculation of electromagnetic (EM) fields and waves inside finite-sized structures comprised of...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We present the extension of the linear embedding via Green's operators (LEGO) scheme to problems tha...
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a modular electromagnetic modeling procedure for large finite electromagnetic band-gap (E...
We propose a methodology based on the Linear Embedding via Green’s Operators (LEGO) and the Eigencur...
We propose a methodology based on the Linear Embedding via Green’s Operators (LEGO) and the Eigencur...