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PIER PIER B PIER C PIER M PIER Letters PIER Photonics
2019-11-27
Computer-Aided Design of Superconducting Equilateral Triangular Patch on Anisotropic Substrates
By
Abdelkarim Gadda,

    Dr. Abdelkarim Gadda

    Department of Electronics

    University of Mostefa Ben Boulaïd-Batna 2

    Algeria

    Homepage

Sami Bedra,

    Prof. Sami Bedra

    Department of Electronics, Faculty of Technology

    University of Batna2-Mostefa Ben Boulaïd

    Algeria

    Homepage

Chahinez Agaba,

    Dr. Chahinez Agaba

    Department of Industrial Engineering

    University of Khenchela

    Algeria

    Homepage

Siham Benkouda,

    Dr. Siham Benkouda

    Electronics Department

    University of Constantine 1

    Algeria

    Homepage

Randa Bedra,

    Dr. Randa Bedra

    Department of Electronics, Faculty of Technology

    University of Batna2-Mostefa Ben Boulaïd

    Algeria

    Homepage

Tarek Fortaki

    Professor Tarek Fortaki

    Département d'Electronique, Faculté des Sciences de l'Ingénieur

    Universite de Batna

    Algeria

    Homepage

Progress In Electromagnetics Research M, Vol. 86, 203.-211, 2019
doi:10.2528/PIERM19090803 | Google Scholar

Abstract
The effects of both anisotropy in the substrates and the superconducting films on the resonant frequencies and radiation patterns of an equilateral triangular patch are investigated theoretically. Our proposed method is based on the modified cavity model in conjunction with the electromagnetic knowledge. The validity of the proposed method is tested by comparing the computed results of the resonant characteristics with the experimental data. Results show effects of the superconducting patch thickness as well as the anisotropy in the substrate on resonant frequency and the radiation pattern of the triangular patch. The effects of the antenna parameters on the resonant frequencies and radiation patterns are also presented and discussed. At higher substrate thicknesses, numerical results indicate that the radiation pattern is drastically changed. The resonant frequency, on the other hand, decreases with high equivalent permittivity of the anisotropic substrate. The proposed method is very fast, simple, and compatible well with CAD.
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Citation
Abdelkarim Gadda, Sami Bedra, Chahinez Agaba, Siham Benkouda, Randa Bedra, and Tarek Fortaki, "Computer-Aided Design of Superconducting Equilateral Triangular Patch on Anisotropic Substrates," Progress In Electromagnetics Research M, Vol. 86, 203.-211, 2019.
doi:10.2528/PIERM19090803
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