A Novel 5G Wideband Metamaterial Based Absorber for Microwave Energy Harvesting Applications

Gökberk Akarsu, Mohammed Farouk Nakmouche, D. Fawzy, A. Allam, Kadir Başköy, Mehmet Faruk Cengiz
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引用次数: 4

Abstract

This paper proposes a novel design of a compact and thin metamaterials (MMs) based wideband absorber aiming at specific microwave energy harvesting for 5G applications. The developed unit cell is obtained by combining two letters-like patches printed on a grounded dielectric substrate. The developed operating band is achieved based on the superposition of the two-resonances generated by the two letters. The simulations are based on Rogers RT5880 (thickness of 1.575 mm, dielectric constant of εr=2.2, loss tangent of tanδ=0.009) and FR-4 substrates (thickness of 1.2 mm dielectric constant of εr=4.3, loss tangent of tanδ=0.02). The obtained results show a wide 10 dB absorption bandwidth in the frequency range between 18 GHz and 30 GHz with absorptivity close to 99% for normal and oblique incident up top to 30° in the case of Rogers RT5880. An absorptivity rate of 96% is obtained for the cased of FR-4 because of high dielectric losses. The obtained results are reasonable compared to other studies in the literatures.
基于新型5G宽带超材料的微波能量收集吸收体
本文提出了一种新颖的基于紧凑和薄的超材料(mm)的宽带吸收器设计,旨在实现5G应用的特定微波能量收集。通过将印刷在接地介质衬底上的两个字母状贴片组合而成。开发的工作频带是基于两个字母产生的两个共振的叠加而实现的。模拟基于Rogers RT5880(厚度1.575 mm,介电常数εr=2.2,损耗正切tanδ=0.009)和FR-4(厚度1.2 mm,介电常数εr=4.3,损耗正切tanδ=0.02)衬底。所得结果表明,罗杰斯RT5880在18 GHz和30 GHz频率范围内具有10 dB的宽吸收带宽,在垂直入射和倾斜入射至30°的情况下,吸收率接近99%。由于高介电损耗,FR-4的吸收率可达96%。所得结果与文献中其他研究结果相比是合理的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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