用于立方体卫星应用的分裂L-I方形致密超材料

Ahasanul Hoque, A. Almutairi, M. Baharuddin, N. Sahar, M. F. Mansor, Mohammad Tausiful Islam
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引用次数: 0

摘要

本文介绍了一种受传输线原理启发而设计研制的用于立方体卫星的低姿态宽带超材料吸波器。利用介质表面实现具有吸收特性的超材料可调谐谐振器越来越受到人们的关注。能够改变电磁特性和频谱工作范围变化的谐振器的物理结构尚未得到令人满意的研究。因此,我们提出了这种基于超材料谐振腔结构的三波段吸收微波吸收器。贴片结构由两条对称的垂直微带线和边缘处的两个滴孔组成,以最大限度地吸收电磁波。测量和仿真分析表明,该吸收器具有近似良好的匹配性,因为模拟吸收高于90%(在10.62 GHz, 11.64 GHz和12.8 GHz),尽管测量水平为80%。所提出的三波段吸波器在立方体卫星通信系统中具有潜在的应用前景。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Split L-I square shaped compact metamaterial for Cube satellite applications
This paper introduces a low profile metamaterial absorber designed and developed inspired by transmission line principle with wide bandwidth for Cube satellite applications. Tunable resonators metamaterial with absorbing features are realized by dielectric surface has attracted growing attention. Physical architecture of the resonators capable of modifying electromagnetic features and spectrum operating range variation, which has not been satisfactorily studied. Hence, we propose this metamaterial resonator structure based microwave absorber with tri-band absorption. Patch structure consists of two symmetrical vertical microstrip lines and two drop holes at the edgs to maximize the electromagnetic wave absorption. Measurement and simulation analysis reveals that the proposed absorber have approximately good match since simulated absorption is above 90% (at 10.62 GHz, 11.64 GHz and 12.8 GHz) although the measured level is 80%. The proposed triple band absorber has potential applications in Cube satellite communication system.
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