Format:
Online-Ressource (254 p)
Edition:
Online-Ausg.
ISBN:
9781118863008
,
9781118862957
,
1306373735
,
1118862961
,
9781306373739
,
9781118862964
Series Statement:
ISTE
Content:
Annotation, Recent advances in Wireless Power Transmission (WPT) technologies have enabled various engineering applications with potential product implementation. WPT can be utilized to charge batteries in various pieces of equipment without the need for a wired connection. Energy can be harvested from ambient RF and microwave radiation and 1 million kW microwaves can be transmitted from space to the ground. This book covers all the theory and technologies of WPT, such as microwave generators with semi-conductors and microwave tubes, antennas, phased arrays, beam efficiency, and rectifiers (rectenna). The authors also discuss coupling WPT. Applications, such as energy harvesting, sensor networks, point-to-point WPT, WPT to moving targets (airplane, vehicle, etc.) and Solar Power Satellite are also presented
Content:
Recent advances in Wireless Power Transmission (WPT) technologies have enabled various engineering applications with potential product implementation. WPT can be utilized to charge batteries in various pieces of equipment without the need for a wired connection. Energy can be harvested from ambient RF and microwave radiation and 1 million kW microwaves can be transmitted from space to the ground.This book covers all the theory and technologies of WPT, such as microwave generators with semi-conductors and microwave tubes, antennas, phased arrays, beam efficiency, and rectifiers (rectenna). The
Note:
Description based upon print version of record
,
Cover; Title Page; Contents; Introduction; Chapter 1. History, Present and Future of WPT; 1.1. Theoretical predictions and the first trial in the 19th Century; 1.2. Rejuvenated WPT by microwaves in the 1960s; 1.3. Inductive coupling WPT projects in the 20th Century; 1.4. WPT as a game-changing technology in the 21st Century; Chapter 2. Theory of WPT; 2.1. Theoretical background; 2.2. Beam efficiency and coupling efficiency; 2.2.1. Beam efficiency of radiowaves; 2.2.2. Theoretical increase of beam efficiency; 2.2.3. Coupling efficiency at very close coupling distance; 2.3. Beam forming
,
2.3.1. Beam-forming theory for the phased array and its error2.3.2. Target detecting via radiowaves; 2.4. Beam receiving; Chapter 3. Technologies of WPT; 3.1. Introduction; 3.2. Radio frequency (RF) generation - HPA using semiconductors; 3.3. RF generation - microwave tubes; 3.3.1. Magnetrons; 3.3.2. Traveling wave tube/traveling wave tube amplifier; 3.3.3. Klystron; 3.4 Beam-forming and target-detecting technologies with phased array; 3.4.1. Introduction; 3.4.2. Phased array in the 1990s; 3.4.3. Phased array in the 2000s; 3.4.4. Phased array using magnetrons; 3.4.5. Retrodirective system
,
3.5. RF rectifier - rectenna and tube type3.5.1. General rectifying theory of rectenna; 3.5.2. Various rectennas I - rectifying circuits; 3.5.3. Various rectennas II - higher frequency and dual bands; 3.5.4. Various rectennas III - weak power and energy harvester; 3.5.5. Rectenna array; 3.5.6. Rectifier using vacuum tube; Chapter 4. Applications of WPT; 4.1. Introduction; 4.2. Energy harvesting; 4.3. Sensor network; 4.4. Ubiquitous power source; 4.5. MPT in a pipe; 4.6. Microwave buildings; 4.7. 2D WPT; 4.8. Wireless charging for electric vehicles; 4.9. Point-to-point WPT
,
4.10. WPT to moving/flying target4.11. Solar power satellite; 4.11.1. Basic concept; 4.11.2. SPS as clean energy source of CO2-free energy and for sustainable humanosphere; 4.11.3. MPT on SPS; 4.11.4. Various SPS models; Bibliography; Index
,
Cover; Title Page; Contents; Introduction; Chapter 1. History, Present and Future of WPT; 1.1. Theoretical predictions and the first trial in the 19th Century; 1.2. Rejuvenated WPT by microwaves in the 1960s; 1.3. Inductive coupling WPT projects in the 20th Century; 1.4. WPT as a game-changing technology in the 21st Century; Chapter 2. Theory of WPT; 2.1. Theoretical background; 2.2. Beam efficiency and coupling efficiency; 2.2.1. Beam efficiency of radiowaves; 2.2.2. Theoretical increase of beam efficiency; 2.2.3. Coupling efficiency at very close coupling distance; 2.3. Beam forming
,
2.3.1. Beam-forming theory for the phased array and its error2.3.2. Target detecting via radiowaves; 2.4. Beam receiving; Chapter 3. Technologies of WPT; 3.1. Introduction; 3.2. Radio frequency (RF) generation - HPA using semiconductors; 3.3. RF generation - microwave tubes; 3.3.1. Magnetrons; 3.3.2. Traveling wave tube/traveling wave tube amplifier; 3.3.3. Klystron; 3.4 Beam-forming and target-detecting technologies with phased array; 3.4.1. Introduction; 3.4.2. Phased array in the 1990s; 3.4.3. Phased array in the 2000s; 3.4.4. Phased array using magnetrons; 3.4.5. Retrodirective system
,
3.5. RF rectifier - rectenna and tube type3.5.1. General rectifying theory of rectenna; 3.5.2. Various rectennas I - rectifying circuits; 3.5.3. Various rectennas II - higher frequency and dual bands; 3.5.4. Various rectennas III - weak power and energy harvester; 3.5.5. Rectenna array; 3.5.6. Rectifier using vacuum tube; Chapter 4. Applications of WPT; 4.1. Introduction; 4.2. Energy harvesting; 4.3. Sensor network; 4.4. Ubiquitous power source; 4.5. MPT in a pipe; 4.6. Microwave buildings; 4.7. 2D WPT; 4.8. Wireless charging for electric vehicles; 4.9. Point-to-point WPT
,
4.10. WPT to moving/flying target4.11. Solar power satellite; 4.11.1. Basic concept; 4.11.2. SPS as clean energy source of CO2-free energy and for sustainable humanosphere; 4.11.3. MPT on SPS; 4.11.4. Various SPS models; Bibliography; Index
,
Cover; Title Page; Contents; Introduction; Chapter 1. History, Present and Future of WPT; 1.1. Theoretical predictions and the first trial in the 19th Century; 1.2. Rejuvenated WPT by microwaves in the 1960s; 1.3. Inductive coupling WPT projects in the 20th Century; 1.4. WPT as a game-changing technology in the 21st Century; Chapter 2. Theory of WPT; 2.1. Theoretical background; 2.2. Beam efficiency and coupling efficiency; 2.2.1. Beam efficiency of radiowaves; 2.2.2. Theoretical increase of beam efficiency; 2.2.3. Coupling efficiency at very close coupling distance; 2.3. Beam forming
,
2.3.1. Beam-forming theory for the phased array and its error2.3.2. Target detecting via radiowaves; 2.4. Beam receiving; Chapter 3. Technologies of WPT; 3.1. Introduction; 3.2. Radio frequency (RF) generation - HPA using semiconductors; 3.3. RF generation - microwave tubes; 3.3.1. Magnetrons; 3.3.2. Traveling wave tube/traveling wave tube amplifier; 3.3.3. Klystron; 3.4 Beam-forming and target-detecting technologies with phased array; 3.4.1. Introduction; 3.4.2. Phased array in the 1990s; 3.4.3. Phased array in the 2000s; 3.4.4. Phased array using magnetrons; 3.4.5. Retrodirective system
,
3.5. RF rectifier - rectenna and tube type3.5.1. General rectifying theory of rectenna; 3.5.2. Various rectennas I - rectifying circuits; 3.5.3. Various rectennas II - higher frequency and dual bands; 3.5.4. Various rectennas III - weak power and energy harvester; 3.5.5. Rectenna array; 3.5.6. Rectifier using vacuum tube; Chapter 4. Applications of WPT; 4.1. Introduction; 4.2. Energy harvesting; 4.3. Sensor network; 4.4. Ubiquitous power source; 4.5. MPT in a pipe; 4.6. Microwave buildings; 4.7. 2D WPT; 4.8. Wireless charging for electric vehicles; 4.9. Point-to-point WPT
,
4.10. WPT to moving/flying target4.11. Solar power satellite; 4.11.1. Basic concept; 4.11.2. SPS as clean energy source of CO2-free energy and for sustainable humanosphere; 4.11.3. MPT on SPS; 4.11.4. Various SPS models; Bibliography; Index
Additional Edition:
1118862953
Additional Edition:
1118863003
Additional Edition:
9781118862957
Additional Edition:
9781118863008
Additional Edition:
9781848216051
Additional Edition:
Druckausg. Shinohara, Naoki Wireless power transfer via radiowaves London : ISTE, 2014 9781848216051
Language:
English
Keywords:
Electronic books
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