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Design and Optimization for 5G Wireless Communications. Edition No. 1. Wiley - IEEE

  • ID: 5225290
  • Book
  • April 2020
  • 424 Pages
  • John Wiley and Sons Ltd

This book offers a technical background to the design and optimization of wireless communication systems, covering optimization algorithms for wireless and 5G communication systems design. The book introduces the design and optimization systems which target capacity, latency, and connection density; including Enhanced Mobile Broadband Communication (eMBB), Ultra-Reliable and Low Latency Communication (URLL), and Massive Machine Type Communication (mMTC).

The book is organized into two distinct parts: Part I, mathematical methods and optimization algorithms for wireless communications are introduced, providing the reader with the required mathematical background. In Part II, 5G communication systems are designed and optimized using the mathematical methods and optimization algorithms.

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Preface xi

List of Abbreviations xiii

Part I Mathematical Methods and Optimization Theories for Wireless Communications 1

1 Historical Sketch of Cellular Communications and Networks 3

1.1 Evolution of Cellular Communications and Networks 3

1.2 Evolution to 5G Networks 9

References 11

2 5G Wireless Communication System Parameters and Requirements 13

2.1 5G Requirements 13

2.2 Trade-off of 5G System Metrics 16

Problems 19

References 20

3 Mathematical Methods for Wireless Communications 21

3.1 Signal Spaces 21

3.2 Approximation and Estimation in Signal Spaces 32

3.2.1 Approximation Problems 32

3.2.2 Least Squares Estimation 35

3.2.3 Minimum Mean-Squared Error Estimation 45

3.2.4 Maximum Likelihood and Maximum A Posteriori Estimation 65

3.3 Matrix Factorization 71

3.3.1 LU Decomposition 71

3.3.2 Cholesky Decomposition 76

3.3.3 QR Decomposition 77

3.3.4 SVD Decomposition 85

Problems 92

References 95

4 Mathematical Optimization Techniques for Wireless Communications 97

4.1 Introduction 97

4.2 Mathematical Modeling and Optimization Process 99

4.3 Linear Programming 108

4.4 Convex Optimization 120

4.4.1 Barrier Method 124

4.4.2 Primal-Dual Interior Point Method 130

4.5 Gradient Descent Method 138

Problems 146

References 149

5 Machine Learning 151

5.1 Artificial Intelligence, Machine Learning, and Deep Learning 152

5.2 Supervised and Unsupervised Learning 153

5.3 Reinforcement Learning 177

Problems 191

References 193

Part II Design and Optimization for 5G Wireless Communications and Networks 195

6 Design Principles for 5G Communications and Networks 197

6.1 New Design Approaches and Key Challenges of 5G Communications and Networks 198

6.1.1 5G Frequency Bands 198

6.1.2 Low Latency 199

6.1.3 More Efficient Radio Resource Utilization 201

6.1.4 Small Cells and Ultra-Dense Networks 202

6.1.5 Higher Flexibility 202

6.1.6 Virtualization 203

6.1.7 Distributed Network Architecture 204

6.1.8 Device-Centric Communications 205

6.1.9 New Air Interfaces 206

6.1.10 Big Data Management 206

6.2 5G New Radio 207

6.2.1 5G Radio Access Network Architecture 207

6.2.2 5G NR Deployment Scenarios 208

6.2.3 Frame Structure 209

6.2.4 5G Logical, Transport, and Physical Channels 213

6.2.5 5G Protocol Layers 217

6.2.6 5G NR Physical Layer Processing 220

6.2.7 5G Initial Access Procedure and Beam Management 222

6.3 5G Key Enabling Techniques 226

6.3.1 5GWaveforms 226

6.3.2 5G Multiple Access Schemes 227

6.3.3 Channel Coding Schemes 228

6.3.4 MIMO 230

6.3.5 mmWAVE 231

6.3.6 Network Slicing 232

6.3.7 Multi-access Edge Computing 232

Problems 235

References 237

7 Enhanced Mobile Broadband Communication Systems 239

7.1 Introduction 239

7.2 Design Approaches of eMBB Systems 240

7.3 MIMO 242

7.3.1 Capacity of MIMO Channel 243

7.3.2 Space–Time Coding Design 251

7.3.3 Spatial Multiplexing Design 262

7.3.4 Massive MIMO 268

7.4 5G Multiple Access Techniques 271

7.4.1 OFDM System Design 271

7.4.2 FBMC, GFDM, and UFMC 280

7.5 5G Channel Coding and Modulation 284

7.5.1 LDPC Codes 285

7.5.2 Coding and Modulation for High Spectral Efficiency 291

Problems 299

References 300

8 Ultra-Reliable and Low Latency Communication Systems 303

8.1 Design Approaches of URLLC Systems 304

8.2 Short Packet Transmission 306

8.3 Latency Analysis 317

8.4 Multi-Access Edge Computing 328

Problems 339

References 340

9 Massive Machine Type Communication Systems 343

9.1 Introduction 343

9.2 Design Approaches of mMTC Systems 344

9.3 Robust Optimization 351

9.4 Power Control and Management 362

9.4.1 Linear Programming for Power Control in Distributed Networks 363

9.4.2 Power Control Problem Formulations 366

9.4.3 Beamforming for Transmit Power Minimization 370

9.5 Wireless Sensor Networks 376

Problems 392

References 393

Index 397

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Haesik Kim
Note: Product cover images may vary from those shown
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