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Rechargeable Sensor Networks: Technology, Theory, And Application - Introducing Energy Harvesting To Sensor Networks [Kõva köide]

(Zhejiang Univ, China), (Zhejiang Univ, China), (Zhejiang Univ, China)
  • Formaat: Hardback, 372 pages
  • Ilmumisaeg: 24-Apr-2014
  • Kirjastus: World Scientific Publishing Co Pte Ltd
  • ISBN-10: 9814525456
  • ISBN-13: 9789814525459
Teised raamatud teemal:
  • Formaat: Hardback, 372 pages
  • Ilmumisaeg: 24-Apr-2014
  • Kirjastus: World Scientific Publishing Co Pte Ltd
  • ISBN-10: 9814525456
  • ISBN-13: 9789814525459
Teised raamatud teemal:
Computer scientists and electrical engineers review current research into designing wireless sensor networks that are recharged by energy harvesting methods in order to perform unattended for long periods. Their topics include rechargeable sensor networks with magnetic resonance coupling, cross-layer resource allocation in energy-harvesting sensor networks, the information capacity of an additive white Gaussian noise channel powered by an energy-harvesting source, topology control for wireless sensor networks and ad hoc networks, marine sediment energy harvesting for sustainable underwater sensor networks, and energy-harvesting methods for medical devices. Annotation ©2014 Ringgold, Inc., Portland, OR (protoview.com)

Harvesting energy from ambient energy resources to power electronic devices has been recognized as a promising solution to address the issue of powering the ever-growing number of mobile devices around us. The key technologies in the rapid growth of the energy harvesting field focus on developing solutions to capture ambient energy surrounding the mobile devices and to convert it into usable electrical energy to recharge them. Achieving sustainable network lifetime via battery-aware design brings forth a new frontier for energy optimization techniques, which resulted in the developments of low-power hardware design at the early stage, while has now evolved into power-aware design and even battery-aware design. This book covers technologies of rechargeable sensor networks protocol behinds scavenging energy from sources of solar, vibration, temperature variations, wind, biochemical energy, to passive human power, as a means and replacement for the batteries on mobile and sensor devices.
Preface ix
1 Wind Energy Harvesting for Recharging Wireless Sensor Nodes: Brief Review and A Case Study 1(30)
Yen Kheng Tan
Dibin Zhu
Steve Beeby
1 Introduction
1(1)
2 Wind Energy Harvesting from Wind Turbines
2(7)
3 Energy Harvesting from Flow-Induced Vibration
9(7)
4 Energy Harvesting from Helmholtz Resonators
16(1)
5 Comparisons
17(2)
6 A Case Study on a Novel Method of Harvesting Wind Energy Through Piezoelectric Vibration for Low-Power Autonomous Sensors
19(8)
7 Conclusions
27(1)
Acknowledgments
28(1)
References
28(3)
2 Rechargeable Sensor Networks with Magnetic Resonant Coupling 31(38)
Liguang Xie
Yi Shi
Y. Thomas Hou
Wenjing Lou
Hanif D. Sherali
Huaibei Zhou
1 Introduction
31(5)
2 Single-Node Charging for a Sparse WSN
36(8)
3 Multinode Charging for a Dense WSN
44(15)
4 Bundling Mobile Base Station and Magnetic Resonant Coupling
59(7)
5 Summary
66(1)
Acknowledgments
66(1)
References
67(2)
3 Cross-Layer Resource Allocation in Energy-Harvesting Sensor Networks 69(38)
Zhoujia Mao
C. Emre Koksal
Ness B. Shroff
1 Introduction
69(2)
2 Static Resource Allocation with Renewable Energy
71(11)
3 Dynamic Resource Allocation with Renewable Energy
82(22)
4 Conclusions
104(1)
Acknowledgments
104(1)
References
105(2)
4 Energy-Harvesting Technique and Management for Wireless Sensor Networks 107(62)
Jianhui Zhang
Xiangyang Li
1 Introduction
108(1)
2 Energy-Harvesting Module
109(5)
3 Design of Solar-Harvesting Module
114(18)
4 Energy Management in Energy-Harvesting WSNs
132(9)
5 Duty Cycling under Energy Constraint
141(20)
6 Summary
161(2)
Acknowledgments
163(1)
References
163(6)
5 Information Capacity of an AWGN Channel Powered by an Energy-Harvesting Source 169(36)
R. Rajesh
P.K. Deekshith
Vinod Sharma
1 Introduction
170(1)
2 Related Work
171(2)
3 Capacity of an AWGN Channel with an Energy-Harvesting Transmitter
173(4)
4 Capacity with Processor Energy (PE)
177(2)
5 Achievable Rate with Energy Inefficiencies
179(2)
6 Fading AWGN Channel
181(7)
7 Combining Information and Queuing Theory
188(2)
8 Finite Buffer
190(3)
9 Multiple Access Channel
193(5)
10 Conclusions
198(1)
Appendix A. Proof of Theorem 1
199(1)
References
200(5)
6 Energy Harvesting in Wireless Sensor Networks 205(16)
Nathalie Mitton
Riaan Wolhuter
1 Introduction
205(2)
2 Overview of a Sensor Node
207(5)
3 Energy Harvesting
212(3)
4 Benefits and Drawbacks
215(1)
5 Energy-Harvesting Management
215(3)
6 Discussion
218(1)
Bibliography
219(2)
7 Topology Control for Wireless Sensor Networks and Ad Hoc Networks 221(26)
Sunil Jardosh
1 Overview
221(2)
2 Network Topology
223(2)
3 Need for Topology Control
225(4)
4 Graph Theory-Based Approach
229(4)
5 Algorithms, Dominating Set and Minimum Connected Dominating Set, Optimization Algorithms
233(5)
6 Cross-Layer-Based Approach
238(4)
7 Future Research Direction
242(1)
References
243(4)
8 An Evolutionary Game Approach for Rechargeable Sensor Networks 247(28)
Majed Haddad
Eitan Altman
Dieter Fiems
Julien Gaillard
1 Introduction
247(2)
2 Model
249(2)
3 Properties of the Fitness
251(2)
4 Evolutionary Stable Strategies
253(2)
5 Computing the Equilibrium
255(5)
6 What About Recharging?
260(3)
7 Dynamics
263(2)
8 Numerical Results
265(7)
9 Discussion and Conclusions
272(1)
References
273(2)
9 Marine Sediment Energy Harvesting for Sustainable Underwater Sensor Networks 275(28)
Baikun Li
Lei Wang
Jun-Hong Cui
1 Introduction
275(2)
2 Marine Sediment Energy Harvesting via MFCs
277(6)
3 Design of Marine Sediment MFCs
283(13)
4 Power Management and System Integration with MFCs
296(3)
5 Conclusions
299(1)
References
299(4)
10 Wireless Rechargeable Sensor Networks in the Smart Grid 303(24)
Melike Erol-Kantarci
Hussein T. Mouftah
1 Introduction
303(3)
2 Smart Grid Monitoring with Wireless Rechargeable Sensor Networks
306(2)
3 RF Energy-Harvesting Basics
308(2)
4 RF Energy Harvesting for Wireless Rechargeable Sensor Networks for Smart Grid Deployments
310(7)
5 Performance Evaluation
317(4)
6 Summary and Open Issues
321(2)
References
323(4)
11 Energy-Harvesting Methods for Medical Devices 327(30)
Pedro Dinis Gaspar
Virginie Felizardo
Nuno M. Garcia
1 Introduction
327(5)
2 Harvesting Methods
332(4)
3 Medical Applications
336(10)
4 Current Status and Future Trends
346(8)
5 Conclusions
354(1)
References
355(2)
Index 357