毫米波信道上多用户大规模MIMO-GFDM系统的正则化零强迫预编码性能

C. Wael, Suyoto, N. Armi, Arief Suryadi Satyawan, B. E. Sukoco, A. Subekti
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引用次数: 1

摘要

为了实现提供更高通信容量的目标,5G技术需要更大的带宽可用性,这在中低频段很难满足。毫米波(mmWave)作为解决微波频段带宽不足的一种技术应运而生。毫米波具有波长短的特点,适合大规模MIMO的应用。尽管毫米波具有较高的路径损耗,但大规模MIMO系统可以通过使用预编码技术提供足够的增益来补偿严重的信号衰减。在本文中,我们评估了在毫米波信道上的多用户大规模MIMO系统的性能。采用几何Saleh-Valenzuela (S-V)模型对毫米波大规模MIMO信道的小尺度衰落进行了表征。为了进一步提高5G通信系统的性能和容量,我们将多用户大规模MIMO技术与GFDM波形相结合。作为5G的新候选波形之一,以往的研究表明GFDM比OFDM表现出更好的性能。将RZF预编码应用于多用户大规模MIMO-GFDM系统的发送端。在不同的GFDM系统配置和天线参数下,对系统的误码率性能进行了评估。仿真结果表明,滚转系数(γ)越小,误码率越低。子载波数和子符号数的组合也有助于提高误码率。在低信噪比条件下,更高的BS天线数能提供更好的误码率。总体而言,在提出的配置中,K×M = 64×4和γ = 0.1的大规模MIMO-GFDM优于其他配置。
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 Regularized Zero Forcing (RZF) Precoding for Multiuser Massive MIMO-GFDM System over mmWave Channel
To achieve its goal of providing higher communication capacity, 5G technology needs larger bandwidth availability, which is quite hard to be met in middle and low frequency bands. millimeter Wave (mmWave) has emerged as a solution for bandwidth scarcity on microwave bands frequencies. As one of its property is the short wavelength, mmWave is suitable for massive MIMO. Even though mmWave experience higher path loss, massive MIMO system can provide sufficient gains to compensate the serious signal attenuation by using the precoding technique. In this paper, we evaluate the performance of multi-user massive MIMO system over the mmWave channel. The geometric Saleh-Valenzuela (S-V) model is employed to characterize small scale fading of mmWave massive MIMO channel. To further boost system performance and capacity of 5G communication system, we combine multi-user massive MIMO technique to GFDM waveform. As one of the new waveform candidates for 5G, previous studies suggest that GFDM displays better performance compared to OFDM. RZF precoding is employed to the transmitter side of a multi-user massive MIMO-GFDM system. BER performance are evaluated with different configurations of GFDM system and antenna parameters. Simulation results show that configuration with smaller roll-off factor (γ) achieves lowest BER. The combination of number of subcarrier and sub-symbol also contributes in BER performance. Higher number of BS antenna provides better BER value under low SNR. Overall, among the proposed configuration, massive MIMO-GFDM with K×M = 64×4 and γ = 0.1 outperforms others.
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