5G Radio Access Network Architecture:The Dark Side of 5G

5G Radio Access Network Architecture:The Dark Side of 5G（Wiley - IEEE）

5G 无线电接入网络架构：5G的阴暗面
工程热物理

售价：

发货周期：预计3-5周发货

作者

Sasha Sirotkin

出版社

Wiley-IEEE Press

出版时间

2020年12月17日

装帧

精装

ＩＳＢＮ

9781119550884

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页码

400

语种

英文

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Written by an industry insider with state of the art research at their fingertips, this book describes the Radio Access Network (RAN) architecture, starting with currently deployed 4G, followed by the description of 5G requirements and why re-thinking of the RAN architecture is needed to support these. Based on these considerations, it explains how 5G network architecture, which is currently being defined, is likely to evolve. The aim is not merely to cover relevant standards and technologies as a purely academic exercise (although a significant part of the book will be dedicated to these), but to augment these by practical deployment, to illustrate why the RAN architecture is changing and where it is going. With 5G deployments on the horizon, there is a desire within companies to both re-think the RAN architecture and to change the proprietary nature of the RAN. Correspondingly, there is increased interest in academia, standards bodies and commercial entities involved in the area.

1 Introduction 7 2 Market drivers 10 2.1 Introduction 10 2.2 Key Ideas 11 2.3 Spectrum 13 2.3.1 Spectrum Needs 13 2.3.2 Target Spectrum 14 2.3.3 Spectrum Implications 15 2.4 New spectrum models 16 2.4.1 New Ways of Sharing Spectrum 17 2.4.2 Localized Licensing 18 2.5 Regulations Facilitating 5G Applications 19 2.6 Network deployment models 19 2.7 Technical Requirements of 5G Radio Interfaces 20 2.8 Business drivers 22 2.9 Role of standards 24 2.10 Role of open source 26 2.11 Competition 28 2.12 Challenges 29 2.13 Summary 30 2.13 References 31 3 5G System Overview 33 3.1 Introduction 33 3.2 5G Core Network 35 3.2.1 Introduction 35 3.2.2 Service-based architecture 36 3.2.3 Control- and user-plane separation 40 3.2.4 Common access-agnostic core network 41 3.2.5 Enablers for concurrent and efficient access to local and centralized services 41 3.2.6 Network slicing 44 3.2.7 Private networks 46 3.2.8 References 48 3.3 NG Radio Access Network 50 3.3.1 Introduction 50 3.3.2 Network Protocol Stacks 52 3.3.3 NG Interface 54 3.3.4 Xn interface 59 3.3.5 Additional NG-RAN features 64 3.3.6 References 66 3.4 NR Protocol Stack 68 3.4.1 Introduction 68 3.4.2 NG RAN architecture 69 3.4.3 NR User Plane 69 3.4.4 Supporting QoS with 5GC 72 3.4.5. NR Control Plane 73 3.4.6 Summary 79 3.4.7 References 79 3.5 NR Physical Layer 81 3.5.1 Introduction 81 3.5.2 Waveform and numerology 82 3.5.3 Frame structure 83 3.5.4 Synchronization and Initial access 84 3.5.5 Downlink control channel 86 3.5.6 Uplink control channel 88 3.5.7 Reference signals 89 3.5.8 Beam management 93 3.5.9 Channel coding and modulation 94 3.5.10 Co-existence with LTE, forward compatibility and UL coverage enhancement 96 3.5.11 References 97 4 NG-RAN Architecture 99 4.1 Introduction 99 4.1.1 Monolithic gNB architecture 100 4.1.2 Common Public Radio Interface (CPRI) 101 4.1.3 Antenna interface 102 4.1.4 gNB functional split(s) 106 4.1.5 Conclusions 110 4.1.6 Further reading 111 4.1.7 References 111 4.2 High level gNB CU/DU split 113 4.2.1 Key ideas 113 4.2.2 Market drivers 114 4.2.3 Functional description 116 4.2.3.1 F1 Control Plane protocol 117 4.2.3.2 User Plane protocol 124 4.2.3.3 OAM aspects 124 4.2.4 Further reading 125 4.2.5 References 125 4.3 Multi-Radio Dual Connectivity 127 4.3.1 Key ideas 127 4.3.2 MR-DC options 128 4.3.3 Market drivers 129 4.3.4 Functional description 130 4.3.4.1 Control plane 130 4.3.4.2 User plane 133 4.3.4.3 Procedures 136 4.3.5 Further reading 140 4.3.6 References 140 4.4 Control-user plane separation 142 4.4.1 Key ideas 142 4.4.2 Market drivers 143 4.4.3 Functional description 144 4.4.3.1 Control plane 145 4.4.3.2 OAM aspects 151 4.4.3.3 Relation to SDN 151 4.4.3.4 Relation to 5GC 152 4.4.4 Further reading 153 4.4.5 References 153 4.5 Lower layer split 155 4.5.1 Key ideas 155 4.5.2 Market drivers 156 4.5.3 Functional split 157 4.5.3.1 Fronthaul bandwidth requirements 158 4.5.3.2 Low level functional split details 159 4.5.3.3 Latency management 160 4.5.4 Fronthaul interface 162 4.5.4.1 Messages 162 4.5.4.2 Scheduling procedure 165 4.5.4.3 Beamforming methods 166 4.5.5 Fronthaul timing synchronization 166 4.5.6 Operation, administration and maintenance (OAM) 167 4.5.8 Further reading 168 4.5.9 References 168 4.6 Small Cells 169 4.6.1 Key ideas 169 4.6.2 Market drivers 170 4.6.3 Barriers and Solutions 170 4.6.3.1 Site Locations 171 4.6.3.2 Scaling up deployment 171 4.6.3.3 Backhaul 171 4.6.3.4 Edge Compute 172 4.6.4 Small Cell Variants 172 4.6.4.1 Disaggregation Architectures 172 4.6.4.2 Platform Architectures 174 4.6.4.3 Operating Frequency Impacts on Architecture 175 4.6.4.4 Operational Models 176 4.6.5 Key Interfaces for Small Cells 176 4.6.5.1 FAPI 176 4.6.5.2 nFAPI 178 4.6.5.3 Management Plane 180 4.6.6 Worked Examples 180 4.6.6.1 Indoor Enterprise Example 180 4.6.6.2 Outdoor Urban Example 181 4.6.6.3 Private Network example 182 4.6.8 Further reading 182 4.6.9 References 183 4.7 Summary 185 5 NG-RAN Evolution 187 5.1 Introduction 187 5.2 Wireless Relaying in 5G 188 5.2.1 Key Ideas 189 5.2.2 Market drivers 190 5.2.3 Functional Description 191 5.2.4 Outlook 199 5.2.5 References 200 5.3 Non-terrestrial networks 203 5.3.1 Key ideas 205 5.3.2 Market drivers 206 5.3.3 NTN based NG-RAN architecture 206 5.3.4 NR physical layer adaptations for NTN 210 5.3.5 NTN channel model 214 5.3.6 Outlook 215 5.3.7 References 216 6 Enabling Technologies 218 6.1 Introduction 218 6.2 Virtualization 220 6.2.1 Key ideas 220 6.2.2 Market drivers 221 6.2.3 Architecture evolution towards virtualization 222 6.2.4 Containers and microservices 222 6.2.5 NFV evolution 224 6.2.6 RAN virtualization platform 225 6.2.7 Virtualization Challenges 228 6.2.8 Further reading 231 6.2.9 References 231 6.3 Open source 233 6.3.1 Key ideas 234 6.3.2 Market drivers 235 6.3.3 Open Source License 235 6.3.4 Software Defined Radio (SDR) 237 6.3.5 Open Source RAN projects 238 6.3.6 Summary 240 6.3.7 References 240 6.4 Multi-Access Edge Computing (MEC) 241 6.4.1 Key ideas 242 6.4.2 Market drivers 243 6.4.3 MEC standard 244 6.4.4 ETSI MEC deployment in 3GPP 5G systems 247 6.4.5 Inter-MEC system communication 249 6.4.6 Flexible MEC service consumption 251 6.4.7 High mobility automotive scenarios 253 6.4.8 Further reading 255 6.4.9 References 255 6.5 Operations, Administration and Management (OAM) 258 6.5.1 Introduction 258 6.5.2 Key Ideas 258 6.5.3 Service-based management architecture 259 6.5.4 NG-RAN and 5GC Information models 260 6.5.5 Performance Management 261 6.5.6 Management of split NG-RAN 263 6.5.7 O-RAN Alliance management architecture 264 6.5.8 Management of network slicing 264 6.5.9 SON in 5G 267 6.5.10 Further reading 271 6.5.11 References 272 6.6 Transport Network 274 6.6.1 Key ideas 274 6.6.2 Market Drivers 275 6.6.3 Defining the problem 276 6.6.4 The Physical Layer 277 6.6.5 Higher layers 285 6.6.6 Conclusions 297 6.6.7 Refrences 297 7 NG-RAN Deployment Considerations 303 7.1 Introduction 303 7.2 Key ideas 305 7.3 Deployment objectives and challenges 305 7.3.1 Where to provide coverage 306 7.3.2 Network Capacity and Compute Resource planning 307 7.3.3 Service fulfillment criteria 310 7.4 Deployment considerations 311 7.4.1 Deployment Cost 311 7.4.2 Spectrum and radio propagation considerations 312 7.4.3 5G frequency ranges 314 7.4.4 Transport Considerations 314 7.4.5 Baseband Pooling 316 7.4.6 Choice of a NG-RAN split architecture 316 7.5 Conclusions 317 7.6 References 318

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