Design of microwave circuits in ridge-gap waveguide technology

E. Alfonso, M. Baquero, P. Kildal, A. Valero-Nogueira, E. Rajo-Iglesias, J. I. Herranz
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引用次数: 57

Abstract

This paper presents recent advances is a new waveguiding technology referred to as ridge gap waveguides. The main advantages of the ridge gap waveguides compared to hollow waveguides are that they are planar and much cheaper to manufacture, in particular at high frequencies such as for millimeter and submillimeter waves. In these waveguides there are no mechanical joints across which electric currents must float. The gap waveguides have lower losses than microstrip lines, and they are completely shielded by metal so no additional packaging is needed, in contrast to the severe packaging problems associated with microstrip circuits. The gap waveguides are realized in a narrow gap between two parallel metal plates by using a texture on one of the surfaces. The waves follow metal ridges in the textured surface. All wave propagation in other directions is prohibited (in cutoff) by realizing a high impedance (ideally a perfect magnetic conductor) through the textured surface at both sides of all ridges. Thereby, cavity resonances do not appear within the band of operation. The paper studies the characteristic impedance of the line and presents simulations and measurements of circuits designed using this technology.
脊隙波导技术中的微波电路设计
本文介绍了一种新型波导技术——脊隙波导的最新进展。与空心波导相比,脊隙波导的主要优点是它们是平面的,制造成本更低,特别是在毫米波和亚毫米波等高频率下。在这些波导中,没有电流必须通过的机械接头。与微带电路相关的严重封装问题相比,间隙波导具有比微带线更低的损耗,并且它们完全被金属屏蔽,因此不需要额外的封装。间隙波导是在两个平行金属板之间的狭窄间隙中通过在其中一个表面上使用纹理来实现的。波沿着纹理表面的金属脊。通过在所有脊线两侧的纹理表面实现高阻抗(理想情况下是完美的磁性导体),禁止所有波在其他方向的传播(截止)。因此,腔共振不会出现在工作频带内。本文对线路的特性阻抗进行了研究,并对采用该技术设计的电路进行了仿真和测试。
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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