南非夸祖鲁-纳塔尔省ka波段地面链路副热带雨衰减的ARIMA模拟性能

A. O. Ayo, P. Owolawi, J. Ojo
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引用次数: 0

摘要

估算卫星链路上的降雨衰减需要精确的降雨率。使用Ka波段等高频波段的卫星网络的指数级发展突出了评估多重扩散损伤的综合影响的必要性。在ku波段及以上运行的卫星通信链路网络由于信号的吸收和色散而经历雨衰。在考虑链路预算规划时,由于热带和亚热带地区的降水量比温带地区大,因此值得关注。本文研究了时间序列ARIMA模型在南非德班ka波段地面链路上的性能。通过以19.5 GHz为中心的6.73公里地面LOS链路上的接收信号电平数据测量、合成风暴技术和国际电信联盟推荐模型(ITU-R),对其性能和有效性进行了测试,该模型基于九(9)年(2005 - 2013)期间降雨率数据产生的降雨衰减。结果表明,ITU-R模型与实测结果不一致。因此,我们测试了一种基于监督学习时间序列的衰减预测方法,该方法提供了比现有模型更好的性能。此外,与实验结果的对比也表明,该方法具有预测实时性和高可用性的优点。本研究的信息将进一步提供对亚热带地区5G网络及以后规划所需的时间序列雨褪的定量见解。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance of ARIMA modelling on sub-tropical rain attenuation at Ka-band terrestrial link in Kwazulu-Natal, South Africa
The estimation of rain attenuation over a satellite link needs an accurate rainfall rate. The exponential development of satellite networks using higher-frequency bands such as Ka bands has highlighted the need to assess the combined effect of multiple diffusion impairments. The network of satellite communication links operating at Ku-band and above experiences rain fades due to signal absorption and dispersion. When considering link budget planning, the tropical and subtropical regions are of concern due to the high amount of precipitation when compared with the temperate regions. This paper examined the performance of the time-series ARIMA model on a Ka-band terrestrial link in Durban South Africa. The performance and validity are tested with the received signal level data measurements over a 6.73 km terrestrial LOS link centred at 19.5 GHz, the synthetic storm technique, and the International Telecommunication Union Recommendation model (ITU-R) based on rain attenuation generated from rain rate data over nine (9) years (20052013). The results reveal that the ITU-R model did not correspond with measured results. Hence, we tested a supervised learning-time series-based attenuation prediction method, which provides better performance than the existing models. Furthermore, the comparison with experimental results also shows that the proposed method has advantages of real-time forecast and high availability. The information from the present study will further provide quantitative insights on time-series rain fade needed in planning for 5G networks and beyond in the subtropical regions.
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