A Broadband High-efficiency Multifunctional Ultrathin Metasurfaces

Yufang Wang, Y. Ge, Z. Chen
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Abstract

This paper proposes a kind of broadband metasurfaces that can independently and finely control the amplitudes and phases with a high efficiency for both reflection and transmission modes. A Fabry-Perot (FP) cavity and a metallic dual-split ring (DSR) polarizer are combined to construct each element of the metasuface that has an ultrathin and planar structure. The forward cross-polarization transmission and backward co-polarization reflection can be switched easily by varying the DSR polarizer. It can offer the arbitrary combination of amplitudes within [0, 1] and phases within the range of [0, 360°] for both transmission and reflection modes. The proposed metasurface was applied to design high-gain low-sidelobe transmitarray antenna (TA) and reflectarray antenna (RA). Comparisons between metasurfaces based on the phase control only and those based on the control of both phase and amplitude are studied. Numerical simulation results verify the described superior performance.
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一种宽带高效多功能超薄超表面
本文提出了一种能够独立、精细地控制反射和传输模式的振幅和相位的宽带超表面。一个Fabry-Perot (FP)腔和一个金属双分裂环(DSR)偏振器相结合,构建了具有超薄平面结构的元表面的每个元素。通过改变DSR偏振器,可以很容易地切换前向交叉偏振传输和后向共偏振反射。它可以为传输和反射模式提供[0,1]范围内的振幅和[0,360°]范围内的相位的任意组合。将所提出的超表面应用于高增益低旁瓣发射阵天线(TA)和反射阵天线(RA)的设计。研究了只进行相位控制的超表面与同时进行相位和振幅控制的超表面的比较。数值仿真结果验证了所描述的优越性能。
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