基于 AMC 的微型波导,具有低于截止频率的可重构通带和准 TEM 模式

IF 3.5 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC
Vikrant Singh;Maryam Khodadadi;Mohsen Khalily;Rahim Tafazolli;Ahmed A. Kishk
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引用次数: 0

摘要

这项工作介绍了一种创新的小型化横向电磁(TEM)波导设计,它比传统的金属波导小60%。所提出的波导提供两个不同的电子可重构通带,远低于截止频率。这是通过使用由可重构人工磁导体(AMC)组成的侧壁来实现的,其优化工作频率为3.51 GHz和4.37 GHz。通过用AMC结构取代金属侧壁,TEM模式可以在波导结构封闭的有限空间内维持,否则传统金属波导中就不存在这种情况。这消除了限制传统波导尺寸的典型截止频率限制,从而实现了波导设计的显著小型化。该工作还提出了一种可重构的AMC设计,其工作频率可以通过施加或消除集成PIN二极管上的直流(DC)偏置来动态调整。此外,这项工作利用3D打印技术制造功能性波导,突出了设计的紧凑性、成本效益、多功能性和快速原型设计能力,适用于广泛的微波应用。因此,这项研究证明了使用可重构的amc进行紧凑和多功能波导设计的潜力,这种波导设计可以用于各种实际用例和现代微波应用的3d打印。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
AMC-Based Miniaturized Waveguide With Reconfigurable Pass-Bands Below Cut-Off Frequency and Quasi-TEM Mode
This work introduces an innovative miniaturized transverse electromagnetic (TEM) waveguide design, which is 60% smaller than conventional metal waveguides. The proposed waveguide offers two distinct electronically reconfigurable passbands well below the cutoff frequency. This has been achieved by using sidewalls composed of reconfigurable artificial magnetic conductors (AMC), optimized to operate at 3.51 GHz and 4.37 GHz. By replacing the metal sidewalls with an AMC structure, a TEM mode can be sustained within the confined space enclosed by the waveguide structure, which otherwise would not exist in a conventional metal waveguide. This eliminates typical cut-off frequency constraints that limit the size of conventional waveguides, thereby enabling a significant miniaturization of the waveguide design. The work also proposes a reconfigurable AMC design whose operating frequency can be dynamically adjusted by applying or removing a direct current (DC) bias across the integrated PIN diodes. Additionally, this work utilizes 3D printing technology to fabricate a functional waveguide, highlighting the design’s compactness, cost-effectiveness, versatility, and fast prototyping capabilities for a wide range of microwave applications. This study therefore demonstrates the potential of using reconfigurable AMCs for compact and versatile waveguide designs that can be 3D-printed for various practical use cases and modern microwave applications.
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来源期刊
CiteScore
6.50
自引率
12.50%
发文量
90
审稿时长
8 weeks
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