M. Bendaoued, A. Es-saleh, B. Nasiri, S. Lakrit, Sudipta Das, R. Mandry, A. Faize
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引用次数: 0
摘要
本文讨论了一种带通滤波器的设计。近年来,基于超材料的新型微波电路的设计和开发日益成为满足现代无线通信系统先进要求的发展趋势。实现和使用金属材料谐振器是最广泛使用的技术解决方案之一,以提高电气性能,并减少微波器件和电路(如天线,耦合器和滤波器)的尺寸。所提出的滤波器是基于使用分环耦合方形谐振器;利用电磁求解器HFSS对所实现电路进行了仿真优化。该滤波器适用于带宽为1200 MHz [10.5 GHz-13.4 GHz]的x波段应用,总面积为24.544.84 mm 2。最终电路安装在介电常数为4.4、厚度为1.6 mm的低成本FR4衬底上。该滤波器的独创性在于其在带宽方面的选择性,具有宽带抑制和易于与无源和有源器件集成。由于其简单的结构,所建议的滤波器显示出有希望的特性,用于无线通信技术提供了良好的性能。
A Compact Square Split-Ring Resonators Band-pass Filter for X Band Applications
In this paper, the design of a bandpass filter is discussed. There has been a rising trend in recent years towards the design and development of new microwave circuits based on metamaterials to best meet the advanced requirements of modern wireless communication systems. The implementation and use of met-amaterial resonators is among the most widely used technical solutions to improve the electrical performance, and reduce the size of microwave devices and circuits such as antennas, couplers and filters. The proposed filter is based on the use of split-ring coupled square resonators; the realized circuit has been optimized in simulation using the electromagnetic solver HFSS. This filter is suitable for X-band applications with a bandwidth of 1200 MHz [10.5 GHz-13.4 GHz] with a total area of 24.54 4.84 mm 2 . The final circuit is mounted on a low cost FR4 substrate with a dielectric permittivity of 4.4 and a thickness of 1.6 mm. The originality of this filter is its selectivity in terms of bandwidth, having a wide band rejection and its easy integration with passive and active devices. Due to its straightforward construction, the suggested filter shows promising characteristics, for usage in wireless technologies for communications to offer an excellent performance.