Terahertz Antenna for 5G Cellular Communication Systems: A Holistic Review

Uri Nissanov (Nissan), G. Singh
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引用次数: 5

Abstract

The next cellular communication in the 5G and beyond can be in the sub-Terahertz (sub-THz) band, i.e. (100–350) GHz, because data rate of (20-100) Gbps is needed. Following atmospheric path loss in THz frequency band, which can reach more than 100 dB/km, there is a need to operate in frequency windows below 1 THz, where the atmospheric attenuation is relatively low, and the high-gain antennas that allow the propagation of the signal beyond 100 meters, because of lack of solid-state communication sources with a power of over 10 mW, as well as wide bandwidth (BW) antennas that will enable data rates of at least 20 Gbps. In this technical review, we explain what the demands and the challenges of antennas at 5G and beyond: how to improve the gain and BW of the antennas simultaneously, what is the minimum gain and BW of the antennas. According to the studies carried out in this field, the most preferable way is the planar microstrip antenna in future cellular communication systems in the sub-THz band, which have the advantages of small size, light weight, etc. According to the research that we have done, there are still no practical implementations of prototype planar microstrip array antennas (only designs and simulations with CST Microwave Studio or Ansoft HFSS) for sub-THz to validate the simulations results with practical measurements. The gain required for such antennas is at least (15.27–20.71) dB for frequency of (100-350) GHz @ BW=4.1 GHz for data rate of 20 Gbps, at least.
5G蜂窝通信系统的太赫兹天线:全面回顾
5G及以后的下一个蜂窝通信可能在次太赫兹(sub-THz)频段,即(100-350)GHz,因为需要(20-100)Gbps的数据速率。太赫兹频段的大气路径损耗可以达到100 dB/km以上,因此需要在低于1太赫兹的频率窗口中工作,因为大气衰减相对较低,并且由于缺乏功率超过10 mW的固态通信源,因此需要允许信号传播超过100米的高增益天线,以及带宽(BW)天线,这将使数据速率至少达到20 Gbps。在这篇技术评论中,我们解释了5G及以后的天线的需求和挑战:如何同时提高天线的增益和BW,天线的最小增益和BW是什么。根据该领域的研究,在未来的亚太赫兹频段蜂窝通信系统中,最理想的方式是平面微带天线,它具有体积小、重量轻等优点。根据我们所做的研究,目前还没有实际实现的亚太赫兹平面微带阵列天线原型(仅使用CST Microwave Studio或Ansoft HFSS进行设计和仿真),以实际测量验证仿真结果。对于(100-350)GHz频率,这种天线所需的增益至少为(15.27-20.71)dB @ BW=4.1 GHz,数据速率至少为20 Gbps。
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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