Loading...
Thumbnail Image
Publication

Analysis of Chiral and Achiral Medium Based Coplanar Waveguide Using Improved Full Generalized Exponential Matrix Technique

Sayad, D.
Zebiri, C.
Elfergani, Issa T.
Rodriguez, Jonathan
Benabdelaziz, F.
Publication Date
2020-12
End of Embargo
Supervisor
Rights
(c) 2020 The Authors. This is an Open Access article distributed under the Creative Commons CC-BY license (https://creativecommons.org/licenses/by/4.0)
Peer-Reviewed
Yes
Open Access status
Gold
Accepted for publication
2020-08-06
Institution
Department
Awarded
Embargo end date
Abstract
In this work, an analytical study of the electromagnetic propagation in a complex medium-based suspended three-layer coplanar waveguide (CPW) is carried out. The study aims at a numerical calculation of the dominant hybrid mode complex propagation constant in the CPW printed on a bianisotropic substrate. The herein considered bianisotropy is characterized by full 3×3 tensors of permittivity, permeability and magnetoelectric parameters. The study is based on the numerical derivation of the Green's functions of such a complex medium in the spectral domain. The study is carried out using the Full Generalized Exponential Matrix Technique based on matrix- shaped compact mathematical formulations. The Spectral Method of Moments (SMoM) and the Galerkin's procedure are used to solve the resulting homogeneous system of equations. The effect of the chiral and achiral bianisotropy on the complex propagation constant is particularly investigated. Goo d agreements with available data for an anisotropic-medium-based suspended CPW structure are achieved. Various cases of chiral and achiral bianisotropy have been investigated, and particularly, the effect on the dispersion characteristics is presented and compared with cases of isotropic and bianisotropic Tellegen media.
Version
Published version
Citation
Sayad D, Zebiri C, Elfergani IT et al (2020) Analysis of Chiral and Achiral Medium Based Coplanar Waveguide Using Improved Full Generalized Exponential Matrix Technique. Radioengineering. 29(4): 591-600.
Link to publisher’s version
Link to Version of Record
Type
Article
Qualification name
Notes