Waveform optimization for future wireless communication: numerical simulation under mobile and vehicular scenarios in 5G and beyond

IF 1.5 Q2 ENGINEERING, MULTIDISCIPLINARY
Tarun Mishra, Vivek Upadhyaya, Garima Mathur
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Abstract

Code Division Multiple Access (CDMA) and Orthogonal Frequency Division Multiplexing (OFDM) are multicarrier regulating systems developed for quick communication. OFDM and its improved multi-carrier regulation technique employ equally distributed orthogonal sub-carriers for the transmission of data. These sub-carriers are modified using a conventional tweak plot, maintaining full information rates comparable to single carrier regulation schemes. The research also compares the two 5G modulation techniques, FBMC and UFMC, to OFDM, the 4G communication modulation technology. To evaluate the benefits of each contender, we compare important characteristics of different modulation approaches. The research compares the 5G modulation techniques FBMC and UFMC to OFDM, focusing on factors like power spectrum density, spectral efficiency, Bit Error rate, and Peak to Average Power Radio. To boost channel capacity and decrease interferences, the approach merges three alternative 5G waveforms under the LTE-V paradigm which is a specialized mode or configuration of Long Term Evolution (LTE) technology designed specifically for vehicular communication. MATLAB simulations show that FBMC performs better in terms of BER and capacity. In scenarios characterized by high interference due to power domain multiplexing and vehicular environment, FBMC demonstrates a maximum capacity that is 3.5 times greater than OFDM. However, in low-interference conditions, FBMC’s capacity exceeds UFMC’s by only a marginal 5%.
未来无线通信的波形优化:5G 及以后移动和车载场景下的数值模拟
码分多址(CDMA)和正交频分复用(OFDM)是为快速通信而开发的多载波调节系统。OFDM 及其改进的多载波调节技术采用平均分配的正交子载波传输数据。这些子载波通过传统的调整图进行修改,从而保持与单载波调节方案相当的全信息速率。研究还将 FBMC 和 UFMC 这两种 5G 调制技术与 4G 通信调制技术 OFDM 进行了比较。为了评估每个竞争者的优势,我们比较了不同调制方法的重要特性。研究将 5G 调制技术 FBMC 和 UFMC 与 OFDM 进行了比较,重点关注功率谱密度、频谱效率、比特误码率和峰值到平均功率无线电等因素。为了提高信道容量并减少干扰,该方法在 LTE-V 范式下合并了三种可供选择的 5G 波形,LTE-V 是长期演进(LTE)技术的一种专门模式或配置,专为车辆通信而设计。MATLAB 仿真表明,FBMC 在误码率和容量方面表现更佳。在因功率域复用和车辆环境而产生高干扰的情况下,FBMC 的最大容量是 OFDM 的 3.5 倍。然而,在低干扰条件下,FBMC 的容量仅比 UFMC 略高 5%。
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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来源期刊
Engineering Research Express
Engineering Research Express Engineering-Engineering (all)
CiteScore
2.20
自引率
5.90%
发文量
192
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