Description

Book Synopsis
Federated Learning for Future Intelligent Wireless Networks

Explore the concepts, algorithms, and applications underlying federated learning

In Federated Learning for Future Intelligent Wireless Networks, a team of distinguished researchers deliver a robust and insightful collection of resources covering the foundational concepts and algorithms powering federated learning, as well as explanations of how they can be used in wireless communication systems. The editors have included works that examine how communication resource provision affects federated learning performance, accuracy, convergence, scalability, and security and privacy.

Readers will explore a wide range of topics that show how federated learning algorithms, concepts, and design and optimization issues apply to wireless communications. Readers will also find:

  • A thorough introduction to the fundamental concepts and algorithms of federated learning, including horizontal, vertical, and h

    Table of Contents

    About the Editors xv

    Preface xvii

    1 Federated Learning with Unreliable Transmission in Mobile Edge Computing Systems 1
    Chenyuan Feng, Daquan Feng, Zhongyuan Zhao, Howard H. Yang, and Tony Q. S. Quek

    1.1 System Model 1

    1.2 Problem Formulation 4

    1.3 A Joint Optimization Algorithm 10

    1.4 Simulation and Experiment Results 16

    2 Federated Learning with non-IID data in Mobile Edge Computing Systems 23
    Chenyuan Feng, Daquan Feng, Zhongyuan Zhao, Geyong Min, and Hancong Duan

    2.1 System Model 23

    2.2 Performance Analysis and Averaging Design 24

    2.3 Data Sharing Scheme 30

    2.4 Simulation Results 42

    3 How Many Resources Are Needed to Support Wireless Edge Networks 49
    Yi-Jing Liu, Gang Feng, Yao Sun, and Shuang Qin

    3.1 Introduction 49

    3.2 System Model 50

    3.3 Wireless Bandwidth and Computing Resources Consumed for Supporting FL-EnabledWireless Edge Networks 54

    3.4 The Relationship between FL Performance and Consumed Resources 59

    3.5 Discussions of Three Cases 62

    3.6 Numerical Results and Discussion 67

    3.7 Conclusion 75

    3.8 Proof of Corollary 3.2 76

    3.9 Proof of Corollary 3.3 77

    4 Device Association Based on Federated Deep Reinforcement Learning for Radio Access Network Slicing 85
    Yi-Jing Liu, Gang Feng, Yao Sun, and Shuang Qin

    4.1 Introduction 85

    4.2 System Model 87

    4.3 Problem Formulation 90

    4.4 Hybrid Federated Deep Reinforcement Learning for Device Association 94

    4.5 Numerical Results 103

    4.6 Conclusion 109

    5 Deep Federated Learning Based on Knowledge Distillation and Differential Privacy 113
    Hui Lin, Feng Yu, and Xiaoding Wang

    5.1 Introduction 113

    5.2 RelatedWork 115

    5.3 System Model 118

    5.4 The Implementation Details of the Proposed Strategy 119

    5.5 Performance Evaluation 120

    5.6 Conclusions 122

    6 Federated Learning-Based Beam Management in Dense Millimeter Wave Communication Systems 127
    Qing Xue and Liu Yang

    6.1 Introduction 127

    6.2 System Model 130

    6.3 Problem Formulation and Analysis 133

    6.4 FL-Based Beam Management in UDmmN 135

    6.6 Conclusions 150

    7 Blockchain-Empowered Federated Learning Approach for An Intelligent and Reliable D2D Caching Scheme 155
    Runze Cheng, Yao Sun, Yijing Liu, Le Xia, Daquan Feng, and Muhammad Imran

    7.1 Introduction 155

    7.2 RelatedWork 157

    7.3 System Model 159

    7.4 Problem Formulation and DRL-Based Model Training 160

    7.5 Privacy-Preserved and Secure BDRFL Caching Scheme Design 165

    7.6 Consensus Mechanism and Federated Learning Model Update 170

    7.7 Simulation Results and Discussions 173

    7.8 Conclusion 177

    8 Heterogeneity-Aware Dynamic Scheduling for Federated Edge Learning 181
    Kun Guo, Zihan Chen, Howard H. Yang, and Tony Q. S. Quek

    8.1 Introduction 181

    8.2 RelatedWorks 184

    8.3 System Model for FEEL 185

    8.4 Heterogeneity-Aware Dynamic Scheduling Problem Formulation 189

    8.5 Dynamic Scheduling Algorithm Design and Analysis 192

    8.6 Evaluation Results 197

    8.7 Conclusions 208

    8.A.1 Proof of Theorem 8.2 208

    8.A.2 Proof of Theorem 8.3 209

    9 Robust Federated Learning with Real-World Noisy Data 215
    Jingyi Xu, Zihan Chen, Tony Q. S. Quek, and Kai Fong Ernest Chong

    9.1 Introduction 215

    9.2 RelatedWork 217

    9.3 FedCorr 219

    9.4 Experiments 226

    9.5 Further Remarks 232

    10 Analog Over-the-Air Federated Learning: Design and Analysis 239
    Howard H. Yang, Zihan Chen, and Tony Q. S. Quek

    10.1 Introduction 239

    10.2 System Model 241

    10.3 Analog Over-the-Air Model Training 242

    10.4 Convergence Analysis 245

    10.5 Numerical Results 250

    10.6 Conclusion 253

    11 Federated Edge Learning for Massive MIMO CSI Feedback 257
    Shi Jin, Yiming Cui, and Jiajia Guo

    11.1 Introduction 257

    11.2 System Model 259

    11.3 FEEL for DL-Based CSI Feedback 260

    11.4 Simulation Results 264

    11.5 Conclusion 268

    12 User-Centric Decentralized Federated Learning for Autoencoder-Based CSI Feedback 273
    Shi Jin, Jiajia Guo, Yan Lv, and Yiming Cui

    12.1 Autoencoder-Based CSI Feedback 273

    12.2 User-Centric Online Training for AE-Based CSI Feedback 275

    12.3 Multiuser Online Training Using Decentralized Federated Learning 279

    12.4 Numerical Results 283

    12.5 Conclusion 287

    Bibliography 287

    Index 291

Federated Learning for Future Intelligent

    Product form

    £99.00

    Includes FREE delivery

    RRP £110.00 – you save £11.00 (10%)

    Order before 4pm tomorrow for delivery by Mon 22 Jun 2026.

    A Hardback by Sun, Chaoqun You, Gang Feng


      View other formats and editions of Federated Learning for Future Intelligent by Sun

      Publisher: John Wiley & Sons Inc
      Publication Date: 11/28/2023 12:00:00 AM
      ISBN13: 9781119913894, 978-1119913894
      ISBN10: 1119913896

      Description

      Book Synopsis
      Federated Learning for Future Intelligent Wireless Networks

      Explore the concepts, algorithms, and applications underlying federated learning

      In Federated Learning for Future Intelligent Wireless Networks, a team of distinguished researchers deliver a robust and insightful collection of resources covering the foundational concepts and algorithms powering federated learning, as well as explanations of how they can be used in wireless communication systems. The editors have included works that examine how communication resource provision affects federated learning performance, accuracy, convergence, scalability, and security and privacy.

      Readers will explore a wide range of topics that show how federated learning algorithms, concepts, and design and optimization issues apply to wireless communications. Readers will also find:

      • A thorough introduction to the fundamental concepts and algorithms of federated learning, including horizontal, vertical, and h

        Table of Contents

        About the Editors xv

        Preface xvii

        1 Federated Learning with Unreliable Transmission in Mobile Edge Computing Systems 1
        Chenyuan Feng, Daquan Feng, Zhongyuan Zhao, Howard H. Yang, and Tony Q. S. Quek

        1.1 System Model 1

        1.2 Problem Formulation 4

        1.3 A Joint Optimization Algorithm 10

        1.4 Simulation and Experiment Results 16

        2 Federated Learning with non-IID data in Mobile Edge Computing Systems 23
        Chenyuan Feng, Daquan Feng, Zhongyuan Zhao, Geyong Min, and Hancong Duan

        2.1 System Model 23

        2.2 Performance Analysis and Averaging Design 24

        2.3 Data Sharing Scheme 30

        2.4 Simulation Results 42

        3 How Many Resources Are Needed to Support Wireless Edge Networks 49
        Yi-Jing Liu, Gang Feng, Yao Sun, and Shuang Qin

        3.1 Introduction 49

        3.2 System Model 50

        3.3 Wireless Bandwidth and Computing Resources Consumed for Supporting FL-EnabledWireless Edge Networks 54

        3.4 The Relationship between FL Performance and Consumed Resources 59

        3.5 Discussions of Three Cases 62

        3.6 Numerical Results and Discussion 67

        3.7 Conclusion 75

        3.8 Proof of Corollary 3.2 76

        3.9 Proof of Corollary 3.3 77

        4 Device Association Based on Federated Deep Reinforcement Learning for Radio Access Network Slicing 85
        Yi-Jing Liu, Gang Feng, Yao Sun, and Shuang Qin

        4.1 Introduction 85

        4.2 System Model 87

        4.3 Problem Formulation 90

        4.4 Hybrid Federated Deep Reinforcement Learning for Device Association 94

        4.5 Numerical Results 103

        4.6 Conclusion 109

        5 Deep Federated Learning Based on Knowledge Distillation and Differential Privacy 113
        Hui Lin, Feng Yu, and Xiaoding Wang

        5.1 Introduction 113

        5.2 RelatedWork 115

        5.3 System Model 118

        5.4 The Implementation Details of the Proposed Strategy 119

        5.5 Performance Evaluation 120

        5.6 Conclusions 122

        6 Federated Learning-Based Beam Management in Dense Millimeter Wave Communication Systems 127
        Qing Xue and Liu Yang

        6.1 Introduction 127

        6.2 System Model 130

        6.3 Problem Formulation and Analysis 133

        6.4 FL-Based Beam Management in UDmmN 135

        6.6 Conclusions 150

        7 Blockchain-Empowered Federated Learning Approach for An Intelligent and Reliable D2D Caching Scheme 155
        Runze Cheng, Yao Sun, Yijing Liu, Le Xia, Daquan Feng, and Muhammad Imran

        7.1 Introduction 155

        7.2 RelatedWork 157

        7.3 System Model 159

        7.4 Problem Formulation and DRL-Based Model Training 160

        7.5 Privacy-Preserved and Secure BDRFL Caching Scheme Design 165

        7.6 Consensus Mechanism and Federated Learning Model Update 170

        7.7 Simulation Results and Discussions 173

        7.8 Conclusion 177

        8 Heterogeneity-Aware Dynamic Scheduling for Federated Edge Learning 181
        Kun Guo, Zihan Chen, Howard H. Yang, and Tony Q. S. Quek

        8.1 Introduction 181

        8.2 RelatedWorks 184

        8.3 System Model for FEEL 185

        8.4 Heterogeneity-Aware Dynamic Scheduling Problem Formulation 189

        8.5 Dynamic Scheduling Algorithm Design and Analysis 192

        8.6 Evaluation Results 197

        8.7 Conclusions 208

        8.A.1 Proof of Theorem 8.2 208

        8.A.2 Proof of Theorem 8.3 209

        9 Robust Federated Learning with Real-World Noisy Data 215
        Jingyi Xu, Zihan Chen, Tony Q. S. Quek, and Kai Fong Ernest Chong

        9.1 Introduction 215

        9.2 RelatedWork 217

        9.3 FedCorr 219

        9.4 Experiments 226

        9.5 Further Remarks 232

        10 Analog Over-the-Air Federated Learning: Design and Analysis 239
        Howard H. Yang, Zihan Chen, and Tony Q. S. Quek

        10.1 Introduction 239

        10.2 System Model 241

        10.3 Analog Over-the-Air Model Training 242

        10.4 Convergence Analysis 245

        10.5 Numerical Results 250

        10.6 Conclusion 253

        11 Federated Edge Learning for Massive MIMO CSI Feedback 257
        Shi Jin, Yiming Cui, and Jiajia Guo

        11.1 Introduction 257

        11.2 System Model 259

        11.3 FEEL for DL-Based CSI Feedback 260

        11.4 Simulation Results 264

        11.5 Conclusion 268

        12 User-Centric Decentralized Federated Learning for Autoencoder-Based CSI Feedback 273
        Shi Jin, Jiajia Guo, Yan Lv, and Yiming Cui

        12.1 Autoencoder-Based CSI Feedback 273

        12.2 User-Centric Online Training for AE-Based CSI Feedback 275

        12.3 Multiuser Online Training Using Decentralized Federated Learning 279

        12.4 Numerical Results 283

        12.5 Conclusion 287

        Bibliography 287

        Index 291

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