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Table of Contents
Intro; Preface; Contents; Acronyms; 1 Data and Energy Integrated Communication Networks: An Overview; 1.1 Energy Dilemma for Electronic Devices; 1.2 Near-Field Wireless Energy Transfer; 1.3 RF Signal Based Wireless Energy Transfer; 1.4 WET Versus WIT in the RF Spectral Band; 1.5 Ubiquitous Architecture of the DEIN; 1.5.1 Heterogeneous Infrastructure; 1.5.2 Heterogeneous User Equipment; 1.5.3 Heterogeneous Techniques for WIT and WET; References; 2 Fundamental of Integrated WET and WIT; 2.1 Information Theoretical Essence; 2.1.1 Discrete-Input-Discrete-Output Memoryless Channel
2.1.2 Continuous-Input-Continuous-Output Memoryless Channel2.2 Transceiver Architecture of DEIN Devices; 2.3 Signal Splitter Based Receiver Architecture; 2.3.1 Ideal Receiver Architecture; 2.3.2 Spatial Splitting Based Receiver; 2.3.3 Power Splitting Based Receiver; 2.3.4 Time Switching Based Receiver; 2.3.5 Rate-Energy Region; 2.4 Summary; References; 3 Throughput Maximization and Fairness Assurance in Data and Energy Integrated Communication Networks; 3.1 Introduction; 3.2 System Model; 3.2.1 Structure of the TDMA Aided Operating Cycle; 3.2.2 Channel Model
3.2.3 Throughput of the Downlink Transmission3.2.4 Throughput of the Uplink Transmission; 3.3 Sum-Throughput Maximisation; 3.4 Fair-Throughput Maximisation; 3.5 Numerical Results; 3.6 Summary; References; 4 Joint Time Allocation and User Scheduling in a Full-Duplex Aided Multi-user DEIN; 4.1 Introduction; 4.2 Preliminary; 4.2.1 Wireless Powered Communication Network; 4.2.2 Full-Duplex; 4.3 System Model; 4.3.1 Network Model; 4.3.2 Frame Structure; 4.3.3 The Downlink WET and Uplink WIT; 4.4 Problem Formulation; 4.4.1 Sum-Throughput Maximisation; 4.4.2 Iterative Algorithm
4.5 Performance Evaluation4.6 Summary; References; 5 Conclusions and Open Challenges; 5.1 Conclusions; 5.2 Open Challenges; 5.2.1 Efficiency Enhancement of WET; 5.2.2 Efficient Energy Storage; 5.2.3 Heterogeneous Internet of Energy; 5.2.4 Information Theoretic WET Capacity; 5.2.5 Interference Cancellation and Signal Decoupling; 5.2.6 Socially Aware Placement of DEIN Stations; 5.2.7 DEIN Aided Mobile Cloud Computing; Index
2.1.2 Continuous-Input-Continuous-Output Memoryless Channel2.2 Transceiver Architecture of DEIN Devices; 2.3 Signal Splitter Based Receiver Architecture; 2.3.1 Ideal Receiver Architecture; 2.3.2 Spatial Splitting Based Receiver; 2.3.3 Power Splitting Based Receiver; 2.3.4 Time Switching Based Receiver; 2.3.5 Rate-Energy Region; 2.4 Summary; References; 3 Throughput Maximization and Fairness Assurance in Data and Energy Integrated Communication Networks; 3.1 Introduction; 3.2 System Model; 3.2.1 Structure of the TDMA Aided Operating Cycle; 3.2.2 Channel Model
3.2.3 Throughput of the Downlink Transmission3.2.4 Throughput of the Uplink Transmission; 3.3 Sum-Throughput Maximisation; 3.4 Fair-Throughput Maximisation; 3.5 Numerical Results; 3.6 Summary; References; 4 Joint Time Allocation and User Scheduling in a Full-Duplex Aided Multi-user DEIN; 4.1 Introduction; 4.2 Preliminary; 4.2.1 Wireless Powered Communication Network; 4.2.2 Full-Duplex; 4.3 System Model; 4.3.1 Network Model; 4.3.2 Frame Structure; 4.3.3 The Downlink WET and Uplink WIT; 4.4 Problem Formulation; 4.4.1 Sum-Throughput Maximisation; 4.4.2 Iterative Algorithm
4.5 Performance Evaluation4.6 Summary; References; 5 Conclusions and Open Challenges; 5.1 Conclusions; 5.2 Open Challenges; 5.2.1 Efficiency Enhancement of WET; 5.2.2 Efficient Energy Storage; 5.2.3 Heterogeneous Internet of Energy; 5.2.4 Information Theoretic WET Capacity; 5.2.5 Interference Cancellation and Signal Decoupling; 5.2.6 Socially Aware Placement of DEIN Stations; 5.2.7 DEIN Aided Mobile Cloud Computing; Index