A NOMA-UFMC PRECODED SYSTEM FOR 6G

Umer Farooq, Prajoona Valsalan, N. ul Hasan, Manaf Zghaibeh
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Abstract

Multi-Carrier Waveform (MCW) modeling and design are envisioned as one of the most important and challenging for the 6th generation (6G) communication networks. In oppose to Orthogonal Frequency Division Multiplexing (OFDM) waveforms, new and innovative design techniques for MCWs have been designed and proposed in recent literature because of their performance superiority. The typical OFDM waveforms have dominated the previous generation of communication systems and proven their potential in many real-time communication environments, but it may not be sufficient to meet the ambitious target of 6G communication systems. Hence, need for new solutions like flexible MCWs and relevant technological advancements in waveform design are needed. This paper proposes designing and evaluating a new MCW design to meet the 6G requirements for spectral efficiency, throughput, and overall system capacity. On the transmitter side, the MCW design proposed in this article employs power domain multiplexing, such as Non-Orthogonal Multiple Access (NOMA), and phase-rotations of the input signal to the Universal Filtered Multi-Carriers (UFMC) modulations, where the Base-Station (BS) assigns different power levels to each user while using the same frequency resources. MATLAB® simulations were performed to assess the proposed MCW performance. Detailed simulation data are employed for comparative performance analysis of the proposed MCW. The results have shown the superior performance of the proposed MCW approach compared to the conventional 5th generation (5G) NOMA-UFMC waveform.
6g的noma-ufmc预编码系统
多载波波形(MCW)建模和设计被认为是第六代(6G)通信网络中最重要和最具挑战性的问题之一。相对于正交频分复用(OFDM)波形,由于其性能上的优越性,近年来已有文献提出和设计了新型的mcw设计技术。典型的OFDM波形已经主导了上一代通信系统,并在许多实时通信环境中证明了它们的潜力,但它可能不足以满足6G通信系统的雄心勃勃的目标。因此,需要新的解决方案,如灵活的mcw和波形设计的相关技术进步。本文提出设计和评估一种新的MCW设计,以满足6G对频谱效率、吞吐量和整体系统容量的要求。在发射端,本文提出的MCW设计采用功率域复用,如非正交多址(NOMA),并将输入信号的相位旋转到通用滤波多载波(UFMC)调制,其中基站(BS)在使用相同频率资源的情况下为每个用户分配不同的功率水平。通过MATLAB®仿真来评估所提出的MCW性能。利用详细的仿真数据,对所提出的多模态小波进行了性能对比分析。结果表明,与传统的第五代(5G) NOMA-UFMC波形相比,所提出的MCW方法具有优越的性能。
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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