Deep Learning Decoder for MIMO Communications with Impulsive Noise

Oscar Delgado, F. Labeau
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引用次数: 4

Abstract

In this paper we consider signal detection in multiple-input-multiple-output (MIMO) systems with an impulsive noise channel. The existing, near optimal, sphere decoder (SD) achieves good performance, however, the computational complexity is directly related to the number of nodes visited during the tree search and the signal-to-noise ratio (SNR). Using neural network techniques, a Deep Learning Detector (DLD) is proposed. The DLD method detects signals transmitted in an impulsive noise channel, after an off-line training phase. The detection process of DLD has lower complexity than the average SD complexity, while exhibiting good performance. What is even more interesting is that the computational complexity of DLD is constant across SNR, in contrast to the SD detectors, which have an exponential complexity across the SNR. This constant complexity could be very helpful when implementing a detector in practice because it could allow for better optimization of resources. To evaluate the performance of our proposed method we have used a low level simulator that generates a fairly accurate model of a MIMO system with an impulsive noise channel. The complexity analysis and simulation results validate the arguments presented in this paper.
基于脉冲噪声的MIMO通信深度学习解码器
本文研究了具有脉冲噪声信道的多输入多输出(MIMO)系统的信号检测问题。现有的近似最优球形解码器(SD)具有良好的性能,但其计算复杂度与树搜索过程中访问的节点数和信噪比直接相关。利用神经网络技术,提出了一种深度学习检测器(DLD)。DLD方法检测经过离线训练阶段后在脉冲噪声信道中传输的信号。DLD检测过程的复杂度低于平均SD复杂度,同时具有良好的性能。更有趣的是,DLD的计算复杂度在整个信噪比中是恒定的,而SD检测器的计算复杂度在整个信噪比中呈指数级增长。在实践中实现检测器时,这种恒定的复杂性可能非常有帮助,因为它可以更好地优化资源。为了评估我们提出的方法的性能,我们使用了一个低电平模拟器,该模拟器生成了一个具有脉冲噪声信道的MIMO系统的相当精确的模型。复杂性分析和仿真结果验证了本文的论点。
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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