适用于60GHz脉冲通信系统的Rake均衡接收方案

doi:10.11959/j.issn.1000-0801.2016011

摘要/Abstract

摘要：

60GHz脉冲通信环境中的多径衰落问题使信号能量发生弥散并产生符号间干扰（ISI）。针对这一问题，分析了系统中ISI的严重程度，并研究了消除干扰的解决方法。在IEEE 802.15.3c工作组建立的60GHz无线信道模型基础上，搭建了60GHz 脉冲通信系统仿真平台，对系统中的ISI 进行了理论分析与数值仿真，设计了一种Rake接收机联合均衡器的接收方案。研究结果表明，采用两径MRC-Rake接收模块并联合MMSE线性均衡模块，既可获得多径分集增益又能有效处理ISI，在不增加过多复杂度的同时提高了系统性能。为今后60GHz脉冲通信系统接收方案的设计提供了技术参考。

关键词: 60GHz, 5G, 符号间干扰, 均衡器, Rake接收机

Abstract:

Dispersion of the signal energy and the inter symbol interference（ISI）is caused by the multipath fading in 60GHz pulse communication environment.To solve this problem,the severity of the ISI in the system was analyzed,and the method to eliminate interference was studied.Based on the 60GHz wireless channel model established by IEEE 802.15.3c,the simulation platform of 60GHz pulse communication system was built.Theoretical analysis and numerical simulation of ISI in the system were carried out,and a receiver scheme of combining Rake receiver and equalizer was designed.Results show that,the two taps MRC-Rake receiver module combined with MMSE linear equalization module can not only improve the signal energy by multipath diversity,but also eliminate ISI.The performance of the system was improved without increasing the complexity.The scheme provides a reference for the design of 60GHz pulse communication system in the future.

Key words: 60GHz, 5G, inter symbol interference, equalizer, Rake receiver

陈现,李学华. 适用于60GHz脉冲通信系统的Rake均衡接收方案[J]. 电信科学, 2016, 32(1): 76-81.

Xian CHEN,Xuehua LI. Receiver scheme of rake equalization for 60GHz pulse communication system[J]. Telecommunications Science, 2016, 32(1): 76-81.

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参考文献 12

[1]	方箭，王坦，黄标 . 高频段宽带无线通信前瞻[J]. 电信科学， 2014,30（3）:109-113. FANG J , WANG T , HUANG B . Outlook of broadband wireless communications at high frequency bands[J]. Telecommunications Science, 2014,30（3）:109-113.
[2]	HANSEN C J . WiGiG:multi-gigabit wireless communications in the 60GHz band[J]. IEEE Wireless Communications, 2011,18（6）:6-7.
[3]	MOPIDEVI H , HUNERLI H V , CAGATAY E , et al. Three-dimensional microfabricated broadband patch antenna for WiGig applications[J]. IEEE Antennas and Wireless Propagation Letters, 2014,13（1）:828-831.
[4]	SAI S N , DASH D , MADI H E , et al. WiGig and IEEE 802.11ad for multi-gigabyte-per-second WPAN and WLAN[J]. ZTE Communications, 2012（4）:13-22.
[5]	IMT-2020（5G）Promotion Group.The white paper on 5G wireless technology architecture[R/OL].（2015-05-01）[2015-06-02]. .
[6]	李娜 . 60GHz脉冲无线通信系统的性能研究[D]. 青岛：中国海洋大学， 2012. LI N . Performance analysis of 60GHz impulse radio system[D]. Qingdao: Ocean University of China, 2012.
[7]	李学华，申思雨 . 卷积码在60GHz芯片间无线互连系统中的性能分析[J]. 电信科学， 2015,31（5）:2015111 LI X H , SHEN S Y . Performance of convolution codes based on 60GHz inter-chip wireless interconnection system[J]. Telecommunications Science, 2015,31（5）:2015111
[8]	ARLELID M , WERNERSSON L E , EGARD M , et al. 60GHz ultra-wideband impulse radio transmitter[J]. IEEE International Conference on Ultra-Wideband, 2009:185-188.
[9]	ZWICK T , BEUKEMA T J , NAM H . Wideband channel sounder with measurements and model for the 60GHz indoor radio channel[J]. IEEE Transactions on Vehicular Technology, 2005,54（4）:1266-1277.
[10]	彭江涛，李学华 . 60GHz芯片间无线互连系统中的Rake 接收性能[J]. 电讯技术， 2014,54（10）:1424-1429. PENG J T , LI X H . Performance of Rake receiver in 60GHz inter chip wireless interconnect system[J]. Telecommunications Engineering, 2014,54（10）:1424-1429.
[11]	付伟 . 短距离无线通讯中传播特性理论研究及相关关键技术[D]. 成都：电子科技大学， 2009. FU W . Study of radio wave propagation and key technologies in short-range wireless communications[D]. Chengdu: University of Electronic Science and Technology of China, 2009.
[12]	张新跃，陶小峰，张平，等. 一种适用于超宽带系统的低复杂度RAKE接收机[J]. 北京邮电大学学报， 2005,28（3）:93-95. ZHANG X Y , TAO X F , ZHANG P , et al. A low complexity Rake receiver for ultra-wideband communication system[J]. Journal of Beijing University of Posts and Telecommunications, 2005,28（3）:93-95.

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