不确定环境下多机器人增强智能多用户毫米波MIMO系统

Ming Feng, Hao Xu
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引用次数: 0

摘要

本文研究了在不确定环境下,如何有效利用多机器人的移动性作为动态中继,并采用机器学习技术,最大限度地提高多用户毫米波MIMO系统的实际通信质量。毫米波MIMO由于其波束形成的高频率利用率而被认为是一种很有前途的无线通信技术。然而,由于无线信道的结构可能更加复杂,多个节点之间的协调可能更加困难,因此不确定环境会严重影响波束形成的有效性和实用性。例如,移动用户分布的不确定性会严重影响无线信道的性能,进而严重降低实际通信质量。为此,本文提出了一种新型的多机器人增强型智能多用户毫米波MIMO (MREI-MU-MIMO)系统,该系统采用基于动态码本的波束训练协议和在线强化学习来监督多机器人中继的移动性,并处理不确定环境的严重影响。首先,提出了一种新的动态码本开发方法,既能降低现有波束形成码本的复杂度,又能处理多用户波束训练过程中不确定条件下的复杂信道结构。然后,提出了一种分散的深度q -网络(DQN)强化学习算法,对多机器人的移动进行智能管理,并进一步有效地分配最优MIMO来处理环境的不确定性。通过实时仿真和实验验证了该设计的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Multi-Robot Enhanced Intelligent Multi-User Millimeter-Wave MIMO Systems under Uncertain Environment
This paper investigates how to maximize the practical communication quality of multi-user millimeter-wave (mmWave) MIMO systems with uncertain environment through effectively using the mobility from multi-robots as dynamic relays and adopting machine learning techniques. mmWave MIMO has been considered as a promising wireless communication technology due to the high frequency usage efficiency from beamforming. However, the uncertain environment could seriously affect the effectiveness and practicality of beamforming since wireless channels may have a more complicated structure, and the coordination among multiple nodes could be more difficult. For instance, the uncertain distribution of mobile users could significantly affect the performance of wireless channels, and then significantly degrade practical communication quality. Therefore, this paper presents a novel Multi-Robot Enhanced Intelligent Multi-User Millimeter-Wave MIMO (MREI-MU-MIMO) system that adopt both dynamic codebook based beam training protocol and online reinforcement learning to supervise the mobility of multi-robot-relay as well as handle the serious effects form the uncertain environment. Firstly, a novel dynamic codebook development is presented that cannot only lower the complexity of existing beamforming codebooks and also handle the complicated channel structure under uncertainty during multi-user beam training. Then, a decentralized Deep Q-Network (DQN) rein-forcement learning algorithm has been developed to intelligently manage multi-robot mobility and further effectively assign the optimal MIMO to handle the uncertainty from environment. The effectiveness of the proposed design has been demonstrated through real-time simulation and experiment.
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