利用人工递归神经网络LTSM技术预测2.4-72GHz频段的降雨衰减

M. Domb, G. Leshem
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引用次数: 1

摘要

自由空间通信是全球通信的主要组成部分。它的优点是信号传播更广,无需布线,易于使用。然而,卫星通信链路受到诸如云、雨、雪、雾和灰尘等任意天气现象的影响。因此,卫星通常使用冗余信号强度来保证信号的恒定和连续传输,导致能量消耗过剩,挑战了太阳能产生的有限功率容量或固定数量的燃料。本研究提出了一种基于机器学习[ML]的模型,该模型提供了由于雨和雾而导致的预期衰减水平的时间依赖预测。根据预测的衰减水平,对通信信号强度进行校正,以节省能量。我们使用创世纪LEO卫星采集的数据和相应的2.4GHz至72GHz范围内的模拟数据。然后我们执行了ML系统,在对高达48GHz的频率进行了几次调整之后,我们在预测和实际衰减水平之间达到了非常窄的差距。然而,在72GHz频率中,我们得到了部分相关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Rain Attenuation Prediction for 2.4-72GHz using LTSM, an artificial recurrent neural network technology
Free-space communication is a leading component in global communications. Its advantages relate to a broader signal spread, no wiring, and ease of engagement. However, satellite communication links suffer from arbitrary weather phenomena such as clouds, rain, snow, fog, and dust. Therefore, satellites commonly use redundant signal strength to ensure constant and continuous signal transmission, resulting in excess energy consumption, challenging the limited power capacity generated by solar energy or the fixed amount of fuel. This research proposes a Machine Learning [ML]-based model that provides a time-dependent prediction of the expected attenuation level due to rain and fog. Based on the predicted attenuation level, we calibrate the communication signal strength to save energy. We used collected data from the Genesis LEO satellite and corresponding simulated data in the range of 2.4GHz to 72GHz. We then executed the ML system, and after several adjustments for the frequencies up to 48GHz, we reached a very narrow gap between the predicted and actual attenuation levels. However, in the 72GHz frequency, we got a partial correlation.
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