Optimisation design of real-time wireless power supply system overhead high-voltage power line

Efficient and reliable power supply has been considered as the fundamentality of applying monitoring equipment overhead high-voltage power line (HVPL). Several kinds of energy harvesting devices are investigated and compared. A new power supply scheme, which integrates the online energy harvesting d...

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Published inIET electric power applications Vol. 13; no. 2; pp. 206 - 214
Main Authors Wang, Wei, Zhu, Zhongbin, Wang, Qi, Hu, Minqiang
Format Journal Article
LanguageEnglish
Published The Institution of Engineering and Technology 01.02.2019
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Abstract Efficient and reliable power supply has been considered as the fundamentality of applying monitoring equipment overhead high-voltage power line (HVPL). Several kinds of energy harvesting devices are investigated and compared. A new power supply scheme, which integrates the online energy harvesting device and the wireless power transfer (WPT) system, is presented. Optimisation design of online energy harvesting device is analysed emphatically by taking both HVPL insulation distance and wireless power supply efficiency into account. For further increasing the harvested energy from power lines, this study discusses the design of specific device structure and the accurate calculation of maximum output power. It is found that essential parameters and exciting current angle contribute to more extracting energy. Meanwhile, in order to expand the transmitting distance with high efficiency, the WPT system with double relay coils is selected. The charging threshold voltage of the load can be further optimised under different transmitting distances by adopting an AC–DC voltage-doubling rectifier circuit. Simulation and experimental studies show that when the transmitting distance is >1 m, the monitoring equipment can also be charged in a reliable way, which also verifies the correctness and feasibility of the system.
AbstractList Efficient and reliable power supply has been considered as the fundamentality of applying monitoring equipment overhead high‐voltage power line (HVPL). Several kinds of energy harvesting devices are investigated and compared. A new power supply scheme, which integrates the online energy harvesting device and the wireless power transfer (WPT) system, is presented. Optimisation design of online energy harvesting device is analysed emphatically by taking both HVPL insulation distance and wireless power supply efficiency into account. For further increasing the harvested energy from power lines, this study discusses the design of specific device structure and the accurate calculation of maximum output power. It is found that essential parameters and exciting current angle contribute to more extracting energy. Meanwhile, in order to expand the transmitting distance with high efficiency, the WPT system with double relay coils is selected. The charging threshold voltage of the load can be further optimised under different transmitting distances by adopting an AC–DC voltage‐doubling rectifier circuit. Simulation and experimental studies show that when the transmitting distance is >1 m, the monitoring equipment can also be charged in a reliable way, which also verifies the correctness and feasibility of the system.
Efficient and reliable power supply has been considered as the fundamentality of applying monitoring equipment overhead high-voltage power line (HVPL). Several kinds of energy harvesting devices are investigated and compared. A new power supply scheme, which integrates the online energy harvesting device and the wireless power transfer (WPT) system, is presented. Optimisation design of online energy harvesting device is analysed emphatically by taking both HVPL insulation distance and wireless power supply efficiency into account. For further increasing the harvested energy from power lines, this study discusses the design of specific device structure and the accurate calculation of maximum output power. It is found that essential parameters and exciting current angle contribute to more extracting energy. Meanwhile, in order to expand the transmitting distance with high efficiency, the WPT system with double relay coils is selected. The charging threshold voltage of the load can be further optimised under different transmitting distances by adopting an AC–DC voltage-doubling rectifier circuit. Simulation and experimental studies show that when the transmitting distance is >1 m, the monitoring equipment can also be charged in a reliable way, which also verifies the correctness and feasibility of the system.
Author Zhu, Zhongbin
Wang, Qi
Hu, Minqiang
Wang, Wei
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Issue 2
Keywords coils
wireless power supply efficiency
optimisation design
energy harvesting
energy harvesting devices
WPT system
HVPL insulation distance
specific device structure
wireless power transfer system
optimisation
real-time wireless power supply system overhead high-voltage power line
rectifying circuits
online energy harvesting device
maximum output power
power supply scheme
power lines
AC–DC voltage-doubling rectifier circuit
monitoring equipment
inductive power transmission
power supplies to apparatus
charging threshold voltage
Language English
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Snippet Efficient and reliable power supply has been considered as the fundamentality of applying monitoring equipment overhead high-voltage power line (HVPL). Several...
Efficient and reliable power supply has been considered as the fundamentality of applying monitoring equipment overhead high‐voltage power line (HVPL). Several...
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iet
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SubjectTerms AC–DC voltage‐doubling rectifier circuit
charging threshold voltage
coils
energy harvesting
energy harvesting devices
HVPL insulation distance
inductive power transmission
maximum output power
monitoring equipment
online energy harvesting device
optimisation
optimisation design
power lines
power supplies to apparatus
power supply scheme
real‐time wireless power supply system overhead high‐voltage power line
rectifying circuits
Research Article
specific device structure
wireless power supply efficiency
wireless power transfer system
WPT system
Title Optimisation design of real-time wireless power supply system overhead high-voltage power line
URI http://digital-library.theiet.org/content/journals/10.1049/iet-epa.2018.5498
https://onlinelibrary.wiley.com/doi/abs/10.1049%2Fiet-epa.2018.5498
Volume 13
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