Wireless Powered Communication Networks - From Security Challenges to IoT Applications
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This is the first textbook examining the current research to provide a unified view of wireless power transfer (WPT) and information transmission in WPCNs from a physical layer security (PLS) perspective. Focused on designing efficient secure transmission schemes, analyzing energy evolvement process, and evaluating secrecy outage performance under different channel state information (CSI), the results presented in this book shed light on how to best balance security and throughput with prudent use of harvested energy in WCNs. It also provides an overview of the WPCNs by introducing the background of WPT, followed by a summary of the research conducted in the field. The authors describe the physical-layer security (PLS) problem in WPCNs, including the causes and the impacts of the problem on the performance of WPCNs. The authors extend the discussions by introducing the applications of WPCNs in the IoT.
From the Internet of Things (IoT) point of view, this textbook reviews the opportunities and challenges for the lately-emerged WPCN to seamlessly integrate into the IoT ecosystem. It specifically addresses the maximization problem of uplink and downlink sum-throughout in a dual-hop WPCN, while taking fairness among WPCN users as a constraint. The results provided in this book reveal valuable insights into improving the design and deployment of future WPCNs in the upcoming IoT environment.
This textbook targets advanced-level students studying wireless communications and research engineers working in this field. Industry engineers in mobile device and network development business with an interest in WPCNs and IoT, as well as their PLS solutions, will also find this book useful.
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1. Introduction to Wireless Powered Communication Networks
1.1. Overview
1.1.1. Wireless Energy Transfer
1.1.2. Radio Frequency Energy Harvesting1.2. Simultaneous Wireless Information and Power Transfer
1.2.1. Rate-Energy Tradeoff
1.2.2. Receiver Architecture Design in SWIPT
1.3. Wireless Powered Communication Networks
1.3.1. Baseline WPCN Model
1.3.2. Dual-Hop WPCN Model
1.3.3. WPCN Extensions and Challenges1.4. IoT Applications
1.4.1. The Internet of Things
1.4.2. Application Requirements of the IoT
1.4.3. Wireless Powered Communications for IoT
1.5. Summary
References
2. Enhancing Physical Layer Security in Wireless Powered Communication Networks
2.1. Introduction to Physical Layer Security
2.2. The State of The Art of PLS Schemes in WPCNs: A Signal Processing Perspective
2.3. Accumulate-then-Transmit: Secure WPCN in the Presence of Multiple Eavesdroppers
2.3.1. System Model and Protocol Design
2.3.2. Battery State Analysis
2.3.3. Performance Evaluation
2.3.4. Numerical Results2.4. Accumulate-and-Jam: Secure WPCN via A Wireless-Powered Full-Duplex Jammer
2.4.1. System Model and Protocol Design
2.4.2. Hybrid Energy Storage State Analysis
2.4.3. Performance Evaluation
2.4.4. Numerical Results
2.5. Summary
References
3. Extending Wireless Powered Communication Networks for Future Internet of Things
3.1. Introduction to Internet of Things
3.2. Throughput Maximization in DH-WPCN
3.2.1. Related Work
3.2.2. System Model
3.2.3. Throughput Maximization in Uplink and Downlink
3.2.4. Numerical Results3.3. Fairness Enhancement in DH-WPCN
3.3.1. Related Work
3.3.2. System Model
3.3.3. Minimum Throughput Maximization
3.3.4. Numerical Results
3.4. Summary
References
4. Future Directions for Wireless Powered Communications
4.1. New Application Trends in IoT and Telecommunications Networks
4.2. Future Research Directions
References
Provides a unified view of WPT and information transmission in WPCNs from a PLS perspective
Offers a closer look at WPCNs from the IoT point of view
Includes a comprehensive discussion of emerging wireless power transfer for mobile device
Introduces a new perspective to the wireless power transfer through physical layer security
Covers Internet-of-Things applications and implications for mobile device battery
Discusses Wireless powered communications for Internet-of-Things applications and Multihop wireless power transfer in mobile networks
Ying Bi received the Ph.D. degree in Electrical Engineering from the University of Sydney, Australia. She is currently a Research Associate in the School of Electrical and Information Engineering at the University of Sydney. Her current research interests include wireless powered communications, physical layer security in wireless communications, cyber security in smart grid communication networks, and the applications of game theory and optimization theory in these areas. She was a recipient of Australian Postgraduate Award and Norman I Price Supplementary Scholarship.