Efficient Phased Array Radiation Pattern Evaluation for 5G and SatCom On-The-Move (SOTM) Applications

Ali Eltohamy, Mostafa Elkhouly, Peter Große, M. Landmann, G. del Galdo
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Abstract

In satellite communications, it is becoming challenging to provide the tracking performance which is required for Non-Geostationary Orbit (NGSO) constellations with the traditional Satellite Communications (SatCom) On The Move (SOTM) terminal structure which employs bulky parabolic antennas. On the other hand, in terrestrial networks, the single omnidirectional communication with User Equipment (UE) does not provide enough throughput to fulfill the need for higher speed connections. As a consequence, manufacturers started to invest in developing new terminals which use phased array antennas to enable beamforming to increase the directivity and null the interference in terrestrial networks and to provide rapid tracking performance as well as seamless handovers in SOTM. However, this generates new challenge as these antennas change beam patterns depending on the beam steering angle. It is not trivial to evaluate the performance of beamforming antennas since the measurement of the high number of beam patterns that the phased array can form in all directions is time consuming. In this paper, we propose a methodology to measure a large number of beam patterns of a phased array antenna in a more time efficient approach compared to traditional antenna measurement methods. The measured patterns can be used to evaluate the antenna performance and capabilities in different conditions and verify the terminal ability to fulfill the requirements specified by the standards.
5G和移动卫星通信(SOTM)应用的高效相控阵辐射方向图评估
在卫星通信中,传统的卫星通信(SatCom)移动(SOTM)终端结构采用笨重的抛物面天线,为非地球静止轨道(NGSO)星座提供所需的跟踪性能变得越来越具有挑战性。另一方面,在地面网络中,与用户设备(UE)的单一全向通信不能提供足够的吞吐量来满足更高速度连接的需求。因此,制造商开始投资开发使用相控阵天线的新终端,以实现波束成形,以增加指向性和消除地面网络中的干扰,并在SOTM中提供快速跟踪性能和无缝切换。然而,这产生了新的挑战,因为这些天线会根据波束转向角度改变波束模式。由于相控阵可以在各个方向上形成大量的波束图,因此评估波束形成天线的性能并非易事。在本文中,我们提出了一种测量相控阵天线的大量波束方向图的方法,与传统的天线测量方法相比,这种方法具有更高的时间效率。测量的方向图可用于评估天线在不同条件下的性能和能力,验证终端满足标准要求的能力。
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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