High Performance 5G Antenna Radome Based on Absorptive Meta-surface

Li-ming Zhou, E. Li, Tianwu Li, Da Li
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Abstract

In this paper, a high-performance 5G radome based on absorptive meta-surface is proposed, where an unit cell structure consists of a dielectric layer which is sandwiched between a top lossy layer and a bottom metallic layer. The thickness of radome is designed only 0.037λ, where the simulation results show that the proposed radome is totally transparent to the working band from 3.2 GHz to 3.8 GHz, with an insertion loss less than 0.2dB. Moreover, the spurious signals from 6.5GHz to 7.5GHz could be highly absorbed, with the absorption efficiency more than 90%. The radome is independent to the electromagnetic(EM) waves in both TE and TM modes. The working principle of this radome is also explained reasonably in the perspective of the equivalent circuit model. These results are quite helpful in designing the miniaturized antenna device for 5G communications, radar and military communications.
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基于吸收元表面的高性能5G天线天线罩
本文提出了一种基于吸收元表面的高性能5G天线罩,其中单元胞结构由夹在顶部损耗层和底部金属层之间的介电层组成。设计的天线罩厚度仅为0.037λ,仿真结果表明,该天线罩对3.2 GHz ~ 3.8 GHz工作频段完全透明,插入损耗小于0.2dB。对6.5GHz ~ 7.5GHz范围内的杂散信号具有较高的吸收能力,吸收效率达90%以上。天线罩在TE和TM两种模式下都不受电磁波的影响。从等效电路模型的角度合理地解释了该天线罩的工作原理。这些结果对设计5G通信、雷达和军事通信的小型化天线装置有很大的帮助。
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