Opportunistic Temporal Spectrum Coexistence of Passive Radiometry and Active Wireless Networks

Mohammad Koosha, Nicholas Mastronarde
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引用次数: 3

Abstract

There is insufficient wireless frequency spectrum to support the continued growth of active wireless technologies and devices. This has provoked extensive research on spectrum coexistence. One case that has gained limited attention in this course is using currently banned frequency bands for active wireless communications. One such option is the 27 MHz-wide narrowband portion of the L-band from 1.400 to 1.427 GHz, which is exclusively devoted to space-borne passive radiometry for remote sensing and radio astronomy. Radio regulations currently prohibit active wireless communications and radars from operating in this band to avoid radio frequency interference (RFI) on highly noise-sensitive passive radiometry equipment. The National Aeronautics and Space Administration’s (NASA’s) Soil Moisture Active Passive (SMAP) satellite is one of the latest space-borne remote sensing missions that evaluates global soil moisture by passive scanning of the thermal emissions of the earth in this frequency band. In this paper, we investigate the opportunistic temporal use of this 27 MHz-wide passive radiometry band for active wireless transmissions when there is no Line of Sight (LoS) between SMAP and a terrestrial wireless network. We use MATLAB simulations to determine the fraction of time that SMAP has LoS (and non-LoS) with a terrestrial wireless cell at different Earth latitudes based on SMAP’s orbital characteristics. We also investigate the severity of RFI induced on SMAP in the presence of a terrestrial cluster of 5G cells with LoS.
无源辐射测量和有源无线网络的机会时间频谱共存
没有足够的无线频谱来支持有源无线技术和设备的持续增长。这引起了对频谱共存的广泛研究。在本课程中获得有限关注的一个案例是使用目前禁止的频段进行有源无线通信。其中一个选择是l波段从1.400 GHz到1.427 GHz的27 mhz宽窄带部分,专门用于遥感和射电天文学的星载被动辐射测量。无线电法规目前禁止有源无线通信和雷达在该频段工作,以避免对高度噪声敏感的无源辐射测量设备产生射频干扰(RFI)。美国国家航空航天局(NASA)的土壤湿度主动式被动(SMAP)卫星是最新的星载遥感任务之一,通过被动扫描地球在该频段的热发射来评估全球土壤湿度。在本文中,我们研究了在SMAP和地面无线网络之间没有视线(LoS)的情况下,27 mhz无源辐射测量波段在主动无线传输中的机会性时间使用。基于SMAP的轨道特性,我们使用MATLAB仿真来确定SMAP在不同地球纬度与地面无线小区发生LoS(和非LoS)的时间比例。我们还研究了在具有LoS的5G细胞地面集群存在的情况下,SMAP诱导的RFI的严重程度。
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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