Fabrication and Characterization of a 900-Element 222.5 GHz Single-bit Reflective Surface with Suppressed Quantization Lobes

Bharath G. Kashyap, P. Theofanopoulos, Yiran Cui, G. Trichopoulos
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Abstract

We present a topology for suppressing quantization lobes in 1-bit reconfigurable reflective surfaces (RRSs). RRSs are planar surfaces that redirect the imping waves to the desired direction through phase modulation. For single-bit modulation, plane-wave illuminated RRSs exhibit quantization lobes due to the limited number of available phase bits. To eliminate such lobes, we randomize the quantization error by employing a fixed but random phase delay in every unit-cell of the RRS. Specifically, we focus on the fabrication and characterization of a mmWave single-layer, 1-bit, 30×30 randomized RRS designed at 222.5 GHz. The quasi-optical RCS characterization of the fabricated RRS demonstrates the successful suppression of the quantization lobe using the proposed technique.
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带有抑制量化瓣的900元222.5 GHz单比特反射表面的制备与表征
提出了一种抑制1位可重构反射面(RRSs)中量化波瓣的拓扑结构。RRSs是通过相位调制将冲击波重定向到所需方向的平面。对于单比特调制,平面波照射RRSs由于可用相位比特的数量有限而表现出量化瓣。为了消除这样的波瓣,我们通过在RRS的每个单元中使用固定但随机的相位延迟来随机化量化误差。具体而言,我们专注于毫米波单层,1位,30×30随机RRS设计在222.5 GHz的制造和表征。制备的RRS的准光学RCS表征表明,采用所提出的技术成功地抑制了量化瓣。
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