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01.12.2023

A triple band square-interlinked-rhombus shaped metamaterial absorber for microwave C and X-band utilizations

verfasst von: Mohammed Berka, Benzerga Fellah, Tanvir Islam, Amina Bendaoudi, Sudipta Das, Zoubir Mahdjoub, Luciano Tarricone

Erschienen in: Optical and Quantum Electronics | Ausgabe 14/2023

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Abstract

In this research paper, a tri-band metamaterial absorber (MMA) is suggested to cover the satisfied level of absorption in the Microwave C- and X- band regions. The suggested MMA is structured by a unit cell which is printed on the top face of the FR4_Epoxy dielectric substrate. The copper patch of the unit cell consists of an inter-coupled split ring metamaterial resonator (SIR-SRR) with a square shape for the outer ring and a rhombus shape for the inner one. The unit cell size is optimized for electrical dimensions of (0.195 \({\lambda }_{0}\times \) 0.195 \({\lambda }_{0}\times \) 0.029 \({\lambda }_{0}\)) where \({\lambda }_{0}\) is the free space wavelength and is calculated at the lowest operating frequency of 5.86 GHz. The design of the SIR-SRR has passed through five stages according to five different models to have three absorption peaks. To understand the absorber behavior, a parametric study has been executed and discussed. The obtained results for the absorption qualities of the prescribed MMA show that it has co-polarization insensitive absorptions up to 180° and incident angle stability up to 90° for both transverse electric (TE) and transverse magnetic (TM) modes. It shows three absorption peaks of 86.23, 92.92 and 82.07% at frequencies of 5.86, 6.57 and 8.94 GHz, respectively for utilizations in microwave C- and X-bands. The proposed MMA presents effective electromagnetic qualities for microwave applications, especially for satellite, sensors and radar communications.

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Titel: A triple band square-interlinked-rhombus shaped metamaterial absorber for microwave C and X-band utilizations
verfasst von: Mohammed Berka
Benzerga Fellah
Tanvir Islam
Amina Bendaoudi
Sudipta Das
Zoubir Mahdjoub
Luciano Tarricone
Publikationsdatum: 01.12.2023
Verlag: Springer US
Erschienen in: Optical and Quantum Electronics / Ausgabe 14/2023
Print ISSN: 0306-8919
Elektronische ISSN: 1572-817X
DOI: https://doi.org/10.1007/s11082-023-05511-3

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