3G演进：HSPA与LTE（英文版 第二版）
出版时间：2010年版
丛编项： 图灵原版电子与电气工程系列
内容简介
　　《3G演进：HSPA与LTE（英文版.第2版）》是爱立信研究院研发人员的经验之谈，描述了3G数字蜂窝系统如何演进成为先进的宽带移动接入技术，重点介绍了3G移动通信标准化开发演进路线、无线接入技术和接入网络的演进。书中内容分为5部分，清晰地勾勒出了3G演进技术取舍的诸多细节。《3G演进：HSPA与LTE（英文版.第2版）》是移动通信行业技术人员的必备参考指南，也是高等院校通信专业师生不可多得的教学参考书。
目录
Part Ⅰ： Introduction
1　Background of 3G evolution　3
1.1　History and background of 3G　3
1.1.1　Before 3G　3
1.1.2　Early 3G discussions　5
1.1.3　Research on 3G　6
1.1.4　3G standardization starts　7
1.2　Standardization　7
1.2.1　The standardization process　7
1.2.2　3GPP　9
1.2.3　IMT-2000 activities in ITU　11
1.3　Spectrum for 3G and systems beyond 3G　13
2　The motives behind the 3G evolution　15
2.1　Driving forces　15
2.1.1　Technology advancements　16
2.1.2　Services　17
2.1.3　Cost and performance　20
2.2　3G evolution： Two Radio Access Network approaches and an evolved core network　21
2.2.1　Radio Access Network evolution　21
2.2.2　An evolved core network： system architecture evolution　24
Part Ⅱ： Technologies for 3G Evolution
3　High data rates in mobile communication　29
3.1　High data rates： Fundamental constraints　29
3.1.1　High data rates in noise-limited scenarios　31
3.1.2　Higher data rates in interference-limited scenarios　33
3.2　Higher data rates within a limited bandwidth： Higher-order modulation　34
3.2.1　Higher-order modulation in combination with channel coding　35
3.2.2　Variations in instantaneous transmit power　36
3.3　Wider bandwidth including multi-carrier transmission　37
3.3.1　Multi-carrier transmission　40
4　OFDM transmission　43
4.1　Basic principles of OFDM　43
4.2　OFDM demodulation　46
4.3　OFDM implementation using IFFT/FFT processing　46
4.4　Cyclic-prefix insertion　48
4.5　Frequency-domain model of OFDM transmission　51
4.6　Channel estimation and reference symbols　52
4.7　Frequency diversity with OFDM： Importance of channel coding　53
4.8　Selection of basic OFDM parameters　55
4.8.1　OFDM subcarrier spacing　55
4.8.2　Number of subcarriers　57
4.8.3　Cyclic-prefix length　58
4.9　Variations in instantaneous transmission power　58
4.10　OFDM as a user-multiplexing and multiple-access scheme　59
4.11　Multi-cell broadcast/multicast transmission and OFDM　61
5　Wider-band ‘single-carrier’ transmission　65
5.1　Equalization against radio-channel frequency selectivity　65
5.1.1　Time-domain linear equalization　66
5.1.2　Frequency-domain equalization　68
5.1.3　Other equalizer strategies　71
5.2　Uplink FDMA with flexible bandwidth assignment　71
5.3　DFT-spread OFDM　73
5.3.1　Basic principles　74
5.3.2　DFTS-OFDM receiver　76
5.3.3　User multiplexing with DFTS-OFDM　77
5.3.4　Distributed DFTS-OFDM　78
6　Multi-antenna techniques　81
6.1　Multi-antenna configurations　81
6.2　Benefits of multi-antenna techniques　82
6.3　Multiple receive antennas　83
6.4　Multiple transmit antennas　88
6.4.1　Transmit-antenna diversity　89
6.4.2　Transmitter-side beam-forming　93
6.5　Spatial multiplexing　96
6.5.1　Basic principles　97
6.5.2　Pre-coder-based spatial multiplexing　100
6.5.3　Non-linear receiver processing　102
7　Scheduling， link adaptation and hybrid ARQ　105
7.1　Link adaptation： Power and rate control　106
7.2　Channel-dependent scheduling　107
7.2.1　Downlink scheduling　108
7.2.2　Uplink scheduling　112
7.2.3　Link adaptation and channel-dependent scheduling in the frequency domain　115
7.2.4　Acquiring on channel-state information　116
7.2.5　Traffic behavior and scheduling　117
7.3　Advanced retransmission schemes　118
7.4　Hybrid ARQ with soft combining　120
Part Ⅲ： HSPA
8　WCDMA evolution： HSPA and MBMS　127
8.1　WCDMA： Brief overview　129
8.1.1　Overall architecture　129
8.1.2　Physical layer　132
8.1.3　Resource handling and packet-data session　137
9　High-Speed Downlink Packet Access　139
9.1　Overview　139
9.1.1　Shared-channel transmission　139
9.1.2　Channel-dependent scheduling　140
9.1.3　Rate control and higher-order modulation　142
9.1.4　Hybrid ARQ with soft combining　142
9.1.5　Architecture　143
9.2　Details of HSDPA　144
9.2.1　HS-DSCH： Inclusion of features in WCDMA Release 5　144
9.2.2　MAC-hs and physical-layer processing　147
9.2.3　Scheduling　149
9.2.4　Rate control　150
9.2.5　Hybrid ARQ with soft combining　154
9.2.6　Data flow　157
9.2.7　Resource control for HS-DSCH　159
9.2.8　Mobility　160
9.2.9　UE categories　162
9.3　Finer details of HSDPA　162
9.3.1　Hybrid ARQ revisited： Physical-layer processing　162
9.3.2　Interleaving and constellation rearrangement　167
9.3.3　Hybrid ARQ revisited： Protocol operation　168
9.3.4　In-sequence delivery　170
9.3.5　MAC-hs header　172
9.3.6　CQI and other means to assess the downlink quality　174
9.3.7　Downlink control signaling： HS-SCCH　177
9.3.8　Downlink control signaling： F-DPCH　180
9.3.9　Uplink control signaling： HS-DPCCH　180
10　Enhanced Uplink　185
10.1　Overview　185
10.1.1　Scheduling　186
10.1.2　Hybrid ARQ with soft combining　188
10.1.3　Architecture　189
10.2　Details of Enhanced Uplink　190
10.2.1　MAC-e and physical layer processing　193
10.2.2　Scheduling　195
10.2.3　E-TFC selection　202
10.2.4　Hybrid ARQ with soft combining　203
10.2.5　Physical channel allocation　208
10.2.6　Power control　210
10.2.7　Data flow　211
10.2.8　Resource control for E-DCH　212
10.2.9　Mobility　213
10.2.10　UE categories　213
10.3　Finer details of Enhanced Uplink　214
10.3.1　Scheduling - the small print　214
10.3.2　Further details on hybrid ARQ operation　223
10.3.3　Control signaling　230
11　MBMS： Multimedia Broadcast Multicast Services　239
11.1　Overview　242
11.1.1　Macro-diversity　243
11.1.2　Application-level coding　245
11.2　Details of MBMS　246
11.2.1　MTCH　247
11.2.2　MCCH and MICH　247
11.2.3　MSCH　249
12　HSPA Evolution　251
12.1　MIMO　251
12.1.1　HSDPA-MIMO data transmission　252
12.1.2　Rate control for HSDPA-MIMO　256
12.1.3　Hybrid-ARQ with soft combining for HSDPA-MIMO　256
12.1.4　Control signaling for HSDPA-MIMO　257
12.1.5　UE capabilities　259
12.2　Higher-order modulation.　259
12.3　Continuous packet connectivity　260
12.3.1　DTX