Antenna Arrangement Verification for Low Sidelobe Levels

Abigail J. Kragt Finnell, P. Schubert
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引用次数: 1

Abstract

Space-to-earth Wireless Power Transfer (WPT) in large scale will not be allowed unless the side lobe levels (SLL) can be reduced many orders of magnitude lower than the current technology allows. In particular, high SLL could potentially interfere with aircraft communications around the beam, while the area inside the beam would necessarily be a no-fly zone, similar as over nuclear power plants. To overcome this, the transmitting antenna must be cleverly designed and controlled. In this work, independent validation of the layout, spacing, and envelope arrangement of a design first proposed in 2016 is performed and presented. This design involves a hexagonal design with a triangular antenna element arrangement and a spacing of 0.8 wavelengths using the Dolph-Chebychev beam profile. While this has been shown to produce −240 dB SLL in the AWR Design Environment already, it will now be analyzed using the MATLAB Phased Array System Toolbox. The design will also be investigated on a smaller scale, with the potential for use in other applications, including the powering of low orbit weather balloons or unmanned aerial vehicles (UAVs). The possibility of very low SLL would be transformational in these and other WPT applications, including space solar power, and could greatly benefit humanity and the environment.
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低旁瓣电平的天线布置验证
除非能将旁瓣电平(SLL)降低到比当前技术允许的低许多数量级,否则大规模的空对地无线电力传输(WPT)将不被允许。特别是,高SLL可能会潜在地干扰波束周围的飞机通信,而波束内的区域必然是禁飞区,类似于核电站上空。为了克服这个问题,必须巧妙地设计和控制发射天线。在这项工作中,对2016年首次提出的设计的布局、间距和包络布置进行了独立验证。本设计采用六角形设计,采用三角形天线单元布置,使用道尔夫-切比切夫波束剖面,波长间隔为0.8。虽然在AWR设计环境中已经显示出产生- 240 dB的SLL,但现在将使用MATLAB相控阵系统工具箱对其进行分析。该设计还将在较小规模上进行研究,并有可能用于其他应用,包括为低轨道气象气球或无人驾驶飞行器(uav)提供动力。极低SLL的可能性将在这些和其他WPT应用中具有变革性,包括空间太阳能,并且可以极大地造福人类和环境。
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