A Conformal Transmissive Metasurface with Dual-Band Dual-Circularly Polarized Conversion and Low Scattering

IF 2.8
Zhihao Li, Sijia Li, Chengyuan He, Yuhao Wu, Liqiu Hu, Zhiyun Zhang, Tong Li, Huanhuan Yang
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Abstract

Generally, the existing metasurfaces are periodically or non-periodically planar micro-structures, which hardly satisfy the practical applications such as stealth aircraft, carrier and so on. In order to meet the application, a conformal transmissive metasurface are proposed with multi-function of converting linear polarization into dual-circular polarization in dual-band and low scattering for incidences. The metasurface composed of a non-metallic dielectric material of polyvinyl chloride and the ultra-thin conventional material to achieve a flexible configuration. The mechanism is illustrated by the characteristic parameters, electric field distributions, and equivalent circuit. The simulated results demonstrate that the metasurface can transform y-polarized waves into right-handed circularly polarized waves in 6.8–10.3 GHz and to left-handed circularly polarized waves in 18.77–21.15 GHz, while vice versa for x-polarized waves. Additionally, the conformal metasurface shows an excellent scattering section reduction in operational frequency and that above 10 dB can be realized as the frequency increases. A conformal metasurface sample is fabricated by the printed circuit board (PCB) and 3D printing technology, which is measured in a microwave anechoic chamber that conforms to the simulated results. The conformal transmission metasurface holds significant promise for applications in radomes and electromagnetic shielding.

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具有双频双圆偏振转换和低散射的共形透射超表面
现有的超表面一般为周期性或非周期性平面微结构,难以满足隐身飞机、航母等实际应用。为了满足应用需求,提出了一种具有双波段线偏振转换为双圆偏振的保形透射超表面,并且具有低入射散射的多功能。该超表面由非金属介质材料聚氯乙烯和超薄常规材料组成,实现了柔性结构。从特性参数、电场分布和等效电路等方面说明了其机理。仿真结果表明,该超表面可以将y极化波在6.8 ~ 10.3 GHz范围内转化为右旋圆极化波,在18.77 ~ 21.15 GHz范围内转化为左旋圆极化波,而x极化波反之。此外,共形超表面在工作频率下表现出良好的散射截面减小,并且随着频率的增加可以实现10 dB以上的散射截面减小。采用印刷电路板(PCB)和3D打印技术制作了一个共形超表面样品,并在微波消声室中进行了测量,结果与模拟结果一致。共形传输超表面在天线罩和电磁屏蔽方面具有重要的应用前景。
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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