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Metamaterial Properties Applied in Wire Antenna Design

Samir Berkani(1*), Youssef Lamhene(2), Mustapha Hadj-Sadok(3), Henri Baudrand(4)

(1) Laboratoire d’Instrumentation, FEI, Université USTHB, Algeria
(2) Laboratoire d’Instrumentation, FEI, Université USTHB, Algeria
(3) Laboratoire d’Instrumentation, FEI, Université USTHB, Algeria
(4) Laboratoire RCEM, Toulouse, France
(*) Corresponding author


DOI: https://doi.org/10.15866/irecap.v9i5.16280

Abstract


In this paper, metamaterials are used, in order to verify their utilities; two different structures have been considered as a ground. The first one is a mushroom EBG (Electromagnetic Band Gap) structure which is composed of several patches with a ground connecting via, where the second one is a 2D metamaterial structure with resonant rings and digital capacitors. CST, which is based on one of the most popular numerical method Finite-Difference Time-Domain (FDTD) is used. Both the structures are investigated by simulation and compared at the frequency of 12 GHz, the metamaterials properties are successfully verified around the resonant frequency. A very low cost wire is transformed into a valuable circuit by enhancing the directivity and the gain in order to rival other antennas, in order to ensure a large use to the dipole.  The digital capacitor has essential part in this work. The antenna proposed  in this work is in the frequency band Ku.
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Keywords


Wire Antenna; EBG Structures; Metamaterials; Digital Capacitance; Negative Index Materials

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References


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