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PIER PIER B PIER C PIER M PIER Letters
2006-07-02
Analysis of the Mixed Coupling in Bilateral Microwave Circuits Including Anisotropy for Mics and Mmics Applications
By
Mohamed Lamine Tounsi,

    Prof. Mohamed Lamine Tounsi

    Faculty of Electrical Engineering

    U S T H B University

    Algeria

    Homepage

R. Touhami,

    Dr. R. Touhami

    Faculty of Electronics and Informatics

    U S T H B University

    Algeria

    Homepage

A. Khodja,

    Dr. A. Khodja

    Faculty of Electronics and Informatics

    U S T H B University

    Algeria

    Homepage

Mustapha Yagoub

    Dr. Mustapha Yagoub

    SITE

    University of Ottawa

    Canada

    Homepage

Progress In Electromagnetics Research, Vol. 62, 281-315, 2006
doi:10.2528/PIER06020601
Abstract
Higher integration and smaller layout size, two major trends in today's industry, lead to more prominent electromagnetic coupling with direct applications in the RF/microwave area such as directional couplers, filters, multiplexers, shifters, delay lines, etc. In the present work, an efficient hybrid-mode method is presented for a rigorous characterization of the coupling in multilayer bilateral microwave circuits including anisotropy effects. Various types of planar configurations were considered including microstrip, finline and coplanar structures, but the proposed approach can easily be extended to any form of coupled lines. To fully characterize bilateral multilayer circuits in millimetre wave region with an arbitrary number of conductors, closed forms of dyadic Green's functions were determined in the spectral domain, with use of the Galerkin technique. The computed results show good agreement with data available in the literature. Furthermore, two original configurations based on three line bilateral couplers were computed and validated using neural network models.
Citation
Mohamed Lamine Tounsi, R. Touhami, A. Khodja, and Mustapha Yagoub, "Analysis of the Mixed Coupling in Bilateral Microwave Circuits Including Anisotropy for Mics and Mmics Applications," Progress In Electromagnetics Research, Vol. 62, 281-315, 2006.
doi:10.2528/PIER06020601
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