基于DFT扩频的广义多载波频分多址上行链路传输方案——DFT-S-GMC

doi:10.3969/j.issn.1000-0801.2006.06.002

Abstract

Abstract:

A DFT spread generalized multi-carrier (GMC) based frequency division multiple access (FDMA) scheme, i.e. DFT-S-GMC is proposed for uplink transmission of wideband mobile communication systems. The scheme achieves spreading gains in the frequency-do-main by discrete fourier transform(DFT),and the frequency division multiplexing(FDM)and FDMA by inverse filter-bank transform(IFBT). By theoretical analysis and simulation results,it is shown that the proposed scheme has good peak-to-average power ratio (PAPR) perfor-mance and is more robust to the multi-access interference (MAI) than the existed main stream uplink schemes,e.g. OFDMA and DFT-S-OFDMA scheme.

Key words: FDMA, filter-bank, multi-carrier, MAI, PAPR

Mingqi Li,Xiaodong Zhang,Yuanjie Li,Bin Zhou. A DFT Spread Generalized Multi-Carrier Based FDMA Scheme for Uplink Transmission[J]. Telecommunications Science, 2006, 22(6): 5-10.

Figures/Tables 9

References 19

1	Geraniotis E , Soroushnejad M , Wen-Bin Yang . A multi-access scheme for voice/data integration in hybrid satellite/terrestrial packet radio net-works. IEEE Transactions on Communications, 1995, 43(234)
2	Joon Ho Cho . Equivalence of CDMA, FDMA, and TDMA over Gaussian overloaded channels.In: IEEE Wireless Communications and Network-ing Conference, 2004
3	Sorger U , Broeck D , Schnell M . Interleaved FDMA-a new spread-spec-trum multiple-access scheme.In: IEEE ICC 98, 1998
4	Tsoulos G V . Experimental and theoretical capacity analysis of space-di-vision multiple access (SDMA) with adaptive antennas. IEE Communi-cations Proceedings, 1999 146(5)
5	Paliatsos A , Kanatas A G , Constantinou P . A hybrid CDMA-FDMA indoor microcellular scenario personal,indoor and mobile radio communications.In: 5th IEEE International Symposium on Wireless Networks, 1994
6	Saleh A A M , Rustako A J , Cimini L J , et al. An experimental TDMA indoor radio communications system using slow frequency hopping and coding. IEEE Transactions on Communications, 1991 39(1)
7	. IEEE Standard 802.16-2005. 16-2005. Air interface for fixed and mobile broad-band wireless access systems, Dec 2005
8	Shin S , Chan-koo Kaning , Joung-Cheol Kim , et al. The performance compar ison between WiBro and HSDPA.In: 2nd International Symposium on Wireless Communication Systems, 2005
9	Wulich D . Definition of efficient PAPR in OFDM. IEEE Communica-tions Letters, 2005 9(9)
10	Junqiang Li , Hojin Kim , Yongsuk Lee , et al. A novel broadband wireless OFDMA scheme for downlink in cellular communications.In: IEEE Wireless Communications and Networking,New Orleans, 2003
11	. 3GPP R1-050269. Uplink multiple access for evolved UTRA radio in-terface, 2005
12	. 3GPP R1-050448.Basic principles for the evolved UTRA radio access concept, 2005
13	. 3GPP R1-050588.Radio parameter set for single-carrier based radio ac-cess in evolved UTRA uplink, 2005
14	. 3GPP R1-050881. Time vs frequency domain realization of SC-FDMA transmissions, 2005
15	. 3GPP R1-050584.EUTRA uplink numerology and design, 2005
16	. 3GPP R1-050622. Principles of evolved UTRA radio access concept, 2005
17	. 3GPP R1-051133.DFT-S-GMC:GMC based SC-FDMA for 3GPP LTE uplink, 2005
18	. 3GPP R1-051135.Performance comparison between DFT-S-GMC and DFT-S-OFDM. 2005
19	. 3GPP TR 25.814 V1.2.2.Physical layer aspects for evolved UTRA. May 2006

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参数名称	数值
载波宽度 (MHz)	5
子帧长度 (ms)	0.5
采样频率 (MHz)	7.68
长数据块(LB)长度(μs/采样点数)	66.67/512
短数据块(SB)长度(μs/采样点数)	33.33/256
第一个 CP 长度(μs/采样点数)	5.08/39
CP 长度 (μs/采样点数)	4.04/31

参数名称	数值
滤波器组子带总数（个）	32
使用的子带数（个）	20
虚拟子带数（个）	12
子带间隔 (kHz)	240
3 dB 子带宽度 (kHz)	213.3
原型滤波器类型	SRRC
原型滤波器滚降系数	0.20
原型滤波器长度（采样点数）	448
移位正交间隔（上采样率）(N)	36
长数据块复用符号数 (D)	14
FDE 的 FFT 大小（点）	504

参数名称	数值
子载波总数（个）	512
使用的子带数（个）	300
虚拟子带数（个）	212
子带间隔 (kHz)	15

项目	指标
信道模型	PB-3km/h
发/收天线数目	1Tx,1Rx
调制方式	16QAM
编码方式（码率）	Turbo（1/2）
接收机信道估计	理想
接收机均衡方法	MMSE
上行用户数	2
检测用户/干扰用户频偏	0 Hz/1000 Hz
DFT-S-GMC 每用户占用子带数	4
DFT-S-OFDM 每用户占用子载波数	56

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A DFT Spread Generalized Multi-Carrier Based FDMA Scheme for Uplink Transmission

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