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5G Wireless: A Comprehensive Introduction by William Stallings, ISBN-13: 978-0136767145

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5G Wireless: A Comprehensive Introduction by William Stallings, ISBN-13: 978-0136767145

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  • Publisher: ‎ Addison-Wesley Professional; 1st edition (June 25, 2021)
  • Language: ‎ English
  • 672 pages
  • ISBN-10: ‎ 0136767141
  • ISBN-13: ‎ 978-0136767145

Gain a Deep, Practical Understanding of 5G Technology, Applications, Architecture, Standards, and Ecosystem.

The 5G ultra-high-speed wireless communication standard is a major technological leap forward–substantially increasing speed and capacity, enhancing current use cases, and making many new applications practical. For technical professionals, managers, and students, 5G requires significant new knowledge and expertise. In 5G Wireless: A Comprehensive Introduction, renowned information technology author William Stallings presents a comprehensive and unified explanation of 5G’s key applications, technologies, and standards.

Like Stallings’ other award-winning texts, this guide will help you quickly find the information and gain the mastery to succeed with critical new technology. Stallings first explains how cellular networks have evolved through 4G and now 5G, and surveys 5G’s application areas and use cases. Next, he thoroughly introduces the 5G core network, covering SDN, NFV, network slicing, QoS, and edge computing–and provides a detailed coverage of the 5G air interface and radio access network. Throughout, key concepts are illuminated through realistic examples, review questions help you test your understanding, and references support further exploration.

  • Understand the 5G ecosystem, its building blocks, standards, and R&D roadmaps
  • Explore the Enhanced Mobile Broadband (eMBB) use case, where 5G enhances 4G in applications such as smart offices and dense urban communications
  • Learn how Massive Machine Type Communications (mMTC) and Ultra-Reliable and Low-Latency Communications (URLCC) support new applications such as fog, IoT, and cloud
  • Discover how 5G NextGen core (backbone) networks serve and interconnect wireless access networks that connect user devices
  • Master key 5G NR Air Interface and Radio Access Network (RAN) concepts, including millimeter-wave transmission, MIMO antennas, and OFDM multiplexing

Table of Contents:

Preface xxiv

PART I: OVERVIEW

Chapter 1: Cellular Networks: Concepts and Evolution 2

1.1 Evolution of Cellular Networks 2

1.2 Cellular Network Concepts 4

Cellular Organization 4

Network System Elements 10

Operation of Cellular Systems 11

1.3 First Generation (1G) 14

1.4 Second Generation (2G) 15

Time-Division Multiple Access 16

GSM Architecture 17

Radio Link Aspects 20

1.5 Third Generation (3G) 20

Code-Division Multiple Access 21

3G Architecture 21

1.6 Fourth Generation (4G) 24

E-UTRAN 26

LTE-Advanced Transmission Characteristics 29

Evolved Packet Core 33

1.7 Key Terms and Review Questions 34

Key Terms 34

Review Questions 35

Chapter 2: 5G Standards and Specifications 36

2.1 ITU-R and IMT-2020 37

International Mobile Telecommunications 38

Capabilities 38

Usage Scenarios 41

Use Cases 43

Evaluation 46

2.2 ITU-T and IMT-2020 57

Requirements 57

Network Slicing 59

Fixed Mobile Convergence 61

IMT-2020 Core Network Framework 62

2.3 3GPP 65

3GPP Releases 69

Detailed Requirements 70

2.4 Key Terms and Review Questions 72

Key Terms 72

Review Questions 73

2.5 References and Documents 74

References 74

Documents 74

Chapter 3: Overview of 5G Use Cases and Architecture 76

3.1 5G Use Cases 77

ITU-R 77

5G Americas 77

NGMA Alliance 79

3.2 NGMN 5G Architecture Framework 81

Layered Functionality 82

Network Slicing 85

3.3 3GPP 5G Architecture 87

5G Core Network Architecture 87

Radio Access Network Architecture 94

Session Establishment 97

3.4 Key Terms and Review Questions 98

Key Terms 98

Review Questions 99

3.5 References and Documents 99

References 99

Documents 100

PART II: USE CASES AND APPLICATIONS

Chapter 4: Enhanced Mobile Broadband 102

4.1 eMBB Deployment Scenarios 103

Indoor Hotspot 104

Dense Urban 105

Rural 105

4.2 eMBB Performance Characteristics 105

Data Rate Requirements 106

Spectral Efficiency Requirements 107

Latency Requirements 108

Mobility Requirements 108

System Requirements 109

4.3 Smart Office: An Indoor Hotspot Use Case 110

4.4 Dense Urban Information Society: A Dense Urban Use Case 111

4.5 Radiocommunication Systems Between Train and Trackside: A Rural eMBB Use Case 113

Elements of RSTT 114

Applications of RSTT 114

Broadband Connectivity for Passengers 116

Linear Cell Architecture 117

4.6 Key Terms and Review Questions 118

Key Terms 118

Review Questions 118

4.7 References and Documents 119

References 119

Documents 119

Chapter 5: Massive Machine Type Communications 122

5.1 mMTC Performance Requirements 123

5.2 The Internet of Things 124

The Scope of the Internet of Things 125

Things on the Internet of Things 128

Components of IoT-Enabled Things 128

Constrained Devices 129

IoT and Cloud Context 130

5.3 Relationship Between mMTC and the IoT 133

5.4 Relationship Between mMTC and NB-IoT and eMTC 135

Comparison of NB-IoT and eMTC 135

Low-Power Wide Area (LPWA) 136

5.5 Smart Agriculture 138

Model of IoT Deployment 138

Use Cases 140

Precision Crop Management 145

Network Performance Requirements 150

5.6 Smart Cities 150

Smart City Use Cases 151

ICT Architecture for Smart Cities 158

Network Performance Requirements 160

5.7 Key Terms and Review Questions 162

Key Terms 162

Review Questions 163

5.8 References and Documents 163

References 163

Documents 164

Chapter 6: Ultra-Reliable and Low-Latency Communications 166

6.1 URLLC Performance Requirements 167

Latency 168

Mobility 169

Reliability 170

NGMN Definitions 170

6.2 URLLC Use Cases in Emerging Mission-Critical Applications 171

Industrial Automation 171

Ground Vehicles, Drones, and Robots 171

Tactile Interaction 171

Augmented Reality and Virtual Reality 172

Emergencies, Disasters, and Public Safety 176

Urgent Healthcare 176

Intelligent Transportation 177

6.3 URLLC Applications Based on Performance Requirements 178

Higher Reliability and Lower Latency 179

Higher Reliability, Higher Availability, and Lower Latency 180

Very Low Latency 181

Higher Accuracy Positioning 181

Higher Availability 181

Mission-Critical Services 182

6.4 Industry 4.0 182

Factory Automation Architecture 183

Application Areas 185

Use Cases 187

Performance Requirements 189

6.5 Unmanned Aircraft System Traffic Management 191

UTM Architecture 192

5G Performance Requirements for UTM 194

6.6 Key Terms and Review Questions 197

Key Terms 197

Review Questions 198

6.7 References and Documents 199

References 199

Documents 199

PART III: 5G NEXTGEN CORE NETWORK

Chapter 7: Software-Defined Networking 202

7.1 Evolving Network Requirements 203

7.2 The SDN Approach 204

Modern Network Requirements 204

SDN Architecture 204

Characteristics of Software-Defined Networking 207

7.3 SDN Data Plane 207

Data Plane Functions 207

Data Plane Protocols 209

7.4 OpenFlow 209

Flow Table Structure 211

Flow Table Pipeline 214

The Use of Multiple Tables 216

Group Table 217

OpenFlow Protocol 217

7.5 SDN Control Plane 218

Control Plane Functions 218

Southbound Interface 220

Northbound Interface 220

Eastbound Interface 223

Westbound Interface 224

7.6 SDN Application Plane 225

Application Plane Architecture 225

Northbound Interface 226

Network Services Abstraction Layer 226

Network Applications 226

User Interface 230

7.7 Key Terms and Review Questions 230

Key Terms 230

Review Questions 231

7.8 References and Documents 231

References 231

Documents 232

Chapter 8: Network Functions Virtualization 234

8.1 Background and Motivation for NFV 235

8.2 Virtual Machines and Containers 236

Hypervisor 236

Architectural Approaches 238

Container Virtualization 241

8.3 NFV Concepts 242

Simple Example of the Use of NFV 245

NFV Principles 246

High-Level NFV Framework 246

8.4 NFV Benefits and Requirements 248

NFV Benefits 248

NFV Requirements 249

8.5 NFV Reference Architecture 250

NFV Management and Orchestration 251

Reference Points 251

8.6 NFV Infrastructure 252

Container Interface 253

Deployment of NFVI Containers 256

Logical Structure of NFVI Domains 257

Compute Domain 258

Hypervisor Domain 260

Infrastructure Network Domain 261

8.7 Virtualized Network Functions 263

VNF Interfaces 263

VNFC-to-VNFC Communication 264

VNF Scaling 266

8.8 SDN and NFV 267

8.9 Key Terms and Review Questions 269

Key Terms 269

Review Questions 270

8.10 References and Documents 271

References 271

Documents 271

Chapter 9: Core Network Functionality, QoS, and Network Slicing 272

9.1 Core Network Requirements 273

Network Operational Requirements 273

Basic Network Requirements 275

9.2 Core Network Functional Architecture 279

Tunneling 281

PDU Session Establishment 283

Policy Control Function 287

9.3 Quality of Service 291

QoS Capabilities 291

QoS Architectural Framework 294

QoS Classification, Marking, and Differentiation 297

3GPP QoS Architecture 298

QoS Parameters 299

QoS Characteristics 301

Standardized 5QI-to-QoS Characteristic Mapping 303

9.4 Network Slicing 307

Network Slicing Concepts 308

Requirements for Network Slicing 310

Identifying and Selecting a Network Slice 312

Functional Aspects of Network Slicing 313

Generic Slice Template 314

9.5 SDN and NFV Support for 5G 315

9.6 Key Terms and Review Questions 319

Key Terms 319

Review Questions 319

9.7 References and Documents 320

References 320

Documents 320

Chapter 10: Multi-Access Edge Computing 322

10.1 MEC and 5G 323

10.2 MEC Architectural Concepts 324

10.3 ETSI MEC Architecture 327

Design Principles 328

MEC System Reference Architecture 329

Related Elements 332

10.4 MEC in NFV 333

MEC Components Implemented as VNFs 333

MEC Components Replaced by NFV Components 335

MEC System-Level Components 335

10.5 MEC Support for Network Slicing 335

10.6 MEC Use Cases 336

Consumer-Oriented Services 337

Operator and Third-Party Services 342

Network Performance and QoS Improvements 344

10.7 3GPP Architecture for Enabling Edge Applications 349

EDGEAPP Functional Architecture 350

Synergized Mobile Edge Cloud Architecture 352

10.8 Key Terms and Review Questions 353

Key Terms 353

Review Questions 353

10.9 References and Documents 354

References 354

Documents 355

PART IV: 5G NR AIR INTERFACE AND RADIO ACCESS NETWORK

Chapter 11: Wireless Transmission 356

11.1 Channel Capacity 357

Nyquist Bandwidth 357

Shannon Capacity Formula 358

11.2 Line-of-Sight Transmission 361

Refraction 362

Optical and Radio Line of Sight 363

11.3 Line-of-Sight Transmission Impairments 364

Attenuation 364

Free Space Loss 365

Path Loss Exponent in Practical Cellular Systems 368

Noise 369

The Expression Eb/N0 372

Atmospheric Absorption 374

Multipath 375

Refraction 376

11.4 Fading in the Mobile Environment 376

Multipath Propagation 376

The Effects of Multipath Propagation 377

Types of Fading 378

The Fading Channel 379

11.5 Millimeter Wave Transmission for 5G 381

Propagation Impairments 381

Implications for 5G 385

11.6 Key Terms and Review Questions 387

Key Terms 387

Review Questions 388

11.7 References 389

ANNEX 11A: Decibels and Signal Strength 389

Chapter 12: Antennas 394

12.1 Channel Correction Mechanisms 394

Adaptive Equalization 395

Diversity Techniques 396

Adaptive Modulation and Coding 398

Forward Error Correction 398

12.2 Introduction to Antennas 399

Radiation Patterns 399

Antenna Types 401

Antenna Gain 406

12.3 Multiple-Input/Multiple-Output (MIMO) Antennas 407

MIMO Principles 408

Multiple-User MIMO 410

12.4 Advanced Cellular Antennas 411

Evolution of Cellular Antennas 411

Beamforming 412

Active Antenna Systems 416

Massive MIMO 417

12.5 Key Terms and Review Questions 420

Key Terms 420

Review Questions 421

12.6 References 422

Chapter 13: Air Interface Physical Layer 424

13.1 Modulation Schemes 424

Modulation 425

Amplitude-Shift Keying 425

Frequency-Shift Keying 426

Phase-Shift Keying 426

Quadrature Amplitude Modulation 433

pi/2-BPSK 437

13.2 OFDM, OFDMA, and SC-FDMA 438

Orthogonal Frequency-Division Multiplexing 438

OFDM Implementation 441

Difficulties of OFDM 444

Orthogonal Frequency-Division Multiple Access 445

Single-Carrier FDMA 446

13.3 Waveforms and Numerologies 448

Numerology 448

CP-OFDM 449

DFT-S-OFDM 450

13.4 Key Terms and Review Questions 451

Key Terms 451

Review Questions 452

13.5 References and Documents 453

References 453

Documents 453

ANNEX 13A: Multiplexing and Multiple Access 453

Multiplexing 453

Multiple Access 455

Chapter 14: Air Interface Channel Coding 456

14.1 Transmission Errors 457

Error Burst 457

Data Transmission Channels 458

14.2 Forward Error Correction 460

Block Error Correction 460

Hamming Distance 462

14.3 Parity-Check Matrix Codes 466

Encoding 469

Error Detection 470

Error Correction 470

14.4 Low-Density Parity-Check Codes 471

Code Construction 472

Error Correction 473

Encoding 476

14.5 Polar Coding 476

Polar Encoder 477

Synthetic Channels 479

Decoding 483

14.6 3GPP Channel Coding Specification 484

Quasi-Cyclic Low-Density Parity-Check Codes 485

Polar Coding with CRC 486

14.7 Hybrid Automatic Repeat Request 488

14.8 Key Terms and Review Questions 490

Key Terms 490

Review Questions 490

14.9 References and Documents 491

References 491

Documents 492

Chapter 15: 5G Radio Access Network 494

15.1 Overall RAN Architecture 494

15.2 RAN–Core Functional Split 499

RAN Functional Areas 500

Core Functional Areas 501

15.3 RAN Channel Structure 502

Logical Channel 503

Transport Channels 503

Physical Channels 504

15.4 RAN Protocol Architecture 505

Air Interface Protocol Architecture 505

Channel Structure 508

RAN–Core Network Interface Protocol Architecture 509

Xn Interface Protocol Architecture 511

15.5 NG RAN Transport Network 512

15.6 Integrated Access and Backhaul 517

IAB Architecture 519

Parent/Child Relationship 520

IAB Protocol Architecture 520

15.7 Key Terms and Review Questions 523

Key Terms 523

Review Questions 524

15.8 References and Documents 525

References 525

Documents 525

PART V: APPENDIXES

Appendix A: Review Questions and Solutions 528

Appendix B: Glossary 594

Appendix C: Acronyms 604

Index 608

Dr. William Stallings has made a unique contribution to understanding the broad sweep of technical developments in computer security, computer networking, and computer architecture. He has authored 20 textbooks, and, counting revised editions, more than 75 books on various aspects of these subjects. His writings have appeared in numerous ACM and IEEE publications, including the Proceedings of the IEEE and ACM Computing Reviews. He has 13 times received the award for the best computer science textbook of the year from the Text and Academic Authors Association.
In over 30 years in the field, he has been a technical contributor, a technical manager, and an executive with several high-technology firms. He has designed and implemented both TCP/IP-based and OSIbased protocol suites on a variety of computers and operating systems, ranging from microcomputers to mainframes. Currently he is an independent consultant whose clients have included computer and networking manufacturers and customers, software development firms, and leading-edge government research institutions.
He created and maintains the Computer Science Student Resource Site at ComputerScienceStudent.com. This site provides documents and links on a variety of subjects of general interest to computer science students (and professionals). He is a member of the editorial board of Cryptologia, a scholarly journal devoted to all aspects of cryptology.
Dr. Stallings holds a PhD from M.I.T. in computer science and a B.S. from Notre Dame in electrical engineering.

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