Design Of Unit Cells for Groove Gap Waveguide at Millimeter Wave Spectrum

Ghiayas Tahir, Arshad Hassan
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Abstract

In this paper, a new design of unit cells is proposed for application of groove gap waveguide (GGW) at millimeter Wave (mm-wave) spectrum. In this research work, we designed a band gap using periodic structure that increased the bandwidth of transmission lines over a vast spectrum. To design unit cells for gap waveguides, dispersion characteristics are studied using an eigen mode solver of CST Microwave Studio. Dispersion diagram provides the cutoff band, depicting no propagating modes are present between cutoff frequencies. For this purpose, bed of nails unit cell is augmented to enhance the bandwidth achieved by Electromagnetic band-gap (EBG) structure. Two new unit cell designs based on Mushroom type EBG are presented. For both designs GGW with straight, single 90° bend and double 90° bends have been simulated for evaluation of proposed designs and compared with standard bed of nails EBG structure. Simulation results showed that bandwidth enhancement of 2.365 GHz for proposed mushroom type EBG unit cell and 1.742 GHz for proposed hybrid mushroom type EBG unit cell is achieved in comparison to straight pin..
毫米波波谱沟槽波导单元胞的设计
本文提出了一种用于毫米波(mm-wave)频谱的槽隙波导(GGW)的新设计。在这项研究工作中,我们设计了一个使用周期结构的带隙,在广阔的频谱上增加了传输线的带宽。利用CST Microwave Studio的本征模式求解器研究了间隙波导的色散特性,设计了间隙波导的单元胞。色散图提供截止频带,描述截止频率之间不存在传播模式。为此,增加了钉床单元,提高了电磁带隙(EBG)结构的带宽。提出了两种新的基于蘑菇型EBG的单元格设计。对两种设计的直、单90°弯曲和双90°弯曲GGW进行了模拟,以评估所提出的设计,并与标准钉床EBG结构进行了比较。仿真结果表明,与直引脚相比,所提出的蘑菇型EBG单元和混合蘑菇型EBG单元的带宽分别提高了2.365 GHz和1.742 GHz。
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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