Satellite and Terrestrial Multi-Connectivity for 5G: Making Spectrum Sharing Possible

N. Cassiau, Gosan Noh, S. Jaeckel, Leszek Raschkowski, Jean-Michel Houssin, L. Combelles, Marjorie Thary, Junhyeong Kim, Jean-Baptiste Doré, M. Laugeois
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引用次数: 14

Abstract

This paper reports the first results of the 5G- ALLSTAR project [1] aiming at providing solutions and enablers for spectrum sharing in a 5G cellular and satellite multi-connectivity context. First, we present an exhaustive study of the frequency bands eligible for these systems in the short and medium term. A ray-tracing based and a geometry-based stochastic channel models developed in the project are then described. These models can be used to simulate systems involving terrestrial and non- terrestrial networks. We then describe three different ways investigated in the project for managing interference: signal processing (hardware implementation of a 5G New Radio compatible physical layer), beamforming (steering and switching beams in order to avoid the interference while preserving the spectral efficiency) and radio resource management (tool designed for joint optimization of satellite and terrestrial resource sharing).
5G的卫星和地面多连接:使频谱共享成为可能
本文报告了5G- ALLSTAR项目[1]的首批成果,该项目旨在为5G蜂窝和卫星多连接环境下的频谱共享提供解决方案和推动因素。首先,我们对这些系统在短期和中期符合条件的频段进行了详尽的研究。然后描述了在该项目中开发的基于光线追踪和基于几何的随机通道模型。这些模型可用于模拟涉及地面和非地面网络的系统。然后,我们描述了项目中研究的三种不同的干扰管理方法:信号处理(5G新无线电兼容物理层的硬件实现)、波束形成(在保持频谱效率的同时避免干扰的引导和切换波束)和无线电资源管理(为联合优化卫星和地面资源共享而设计的工具)。
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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