Millimeter-wave Dual-Function Hollow Metal Waveguide to Microstrip Transition and Bandpass Filter based on ENZ Metamaterial

B. Hong, Lei Sun, Guo Ping Wang, R. Richardson, N. Chudpooti, I. Robertson, N. Somjit
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Abstract

This paper presents a novel design of a millimeterwave dual-function in-plane hollow metal waveguide to microstrip transition and bandpass filter based on epsilon-near-zero (ENZ) metamaterial. A hollow metallic rectangular waveguide (HMRW) that operates near its cut-off frequency of the fundamental TE10 mode is used to mimic the ENZ metamaterial, allowing the wave to tunnel through the waveguide with an effectively infinite phase-velocity. As a waveguide transition, the ENZ waveguide directly interconnects HMRW and microstrip in the same plane with a minimum insertion loss of 0.7 dB at the 33.06 GHz, overcoming the significant impedance mismatch and geometry difference between HMRW and Microstrip. As a bandpass filter, the design has a near-flat passband with the minimum insertion loss of 0.7 dB and a bandwidth of 1.31 GHz centered at 32.96 GHz, which leads to a Q-factor of 25.17. The work offers a step towards a novel dual-function waveguide transition and bandpass filter that can be used in a variety of functional components for millimeter-wave multichip modules and hybrid integrated circuits.
基于ENZ超材料的毫米波双功能空心金属波导微带跃迁与带通滤波器
本文提出了一种基于epsilon-近零(ENZ)超材料的毫米波双功能平面内中空金属波导微带跃迁和带通滤波器的新设计。一个空心金属矩形波导(HMRW)在其基本TE10模式的截止频率附近工作,用于模拟ENZ超材料,允许波以有效的无限相速度穿过波导。作为波导过渡,ENZ波导直接将HMRW和微带在同一平面上互连,在33.06 GHz时插入损耗最小为0.7 dB,克服了HMRW和微带之间明显的阻抗失配和几何差异。作为带通滤波器,该设计具有近平坦的通带,最小插入损耗为0.7 dB,以32.96 GHz为中心的带宽为1.31 GHz,其q因子为25.17。这项工作为一种新型双功能波导转换和带通滤波器迈出了一步,该滤波器可用于毫米波多芯片模块和混合集成电路的各种功能组件。
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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