Design, modeling and experimental investigation of a magnetically modulated rotational energy harvester for low frequency and irregular vibration

Vibration energy harvesting is a promising approach for sustainable energy generation from ambience to meet the development of self-powered systems. Here, we propose a novel compact non-resonant magnetically modulated rotational energy harvester (MMR-EH) for low frequency and irregular vibration. Th...

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Veröffentlicht in:Science China. Technological sciences 2020-10, Vol.63 (10), p.2051-2062
Hauptverfasser: Zhao, LinChuan, Zou, HongXiang, Gao, QiuHua, Yan, Ge, Wu, ZhiYuan, Liu, FengRui, Wei, KeXiang, Yang, Bin, Zhang, WenMing
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container_end_page 2062
container_issue 10
container_start_page 2051
container_title Science China. Technological sciences
container_volume 63
creator Zhao, LinChuan
Zou, HongXiang
Gao, QiuHua
Yan, Ge
Wu, ZhiYuan
Liu, FengRui
Wei, KeXiang
Yang, Bin
Zhang, WenMing
description Vibration energy harvesting is a promising approach for sustainable energy generation from ambience to meet the development of self-powered systems. Here, we propose a novel compact non-resonant magnetically modulated rotational energy harvester (MMR-EH) for low frequency and irregular vibration. Through the rational arrangement of multiple magnetic fields in space, a ring route with low potential energy is established. A movable magnet can be non-contact modulated by the magnetic force to move along the ring route under irregular vibration, which is instrumental in electromechanical energy conversion. A dynamic model of the MMR-EH is developed based on the energy method and verified experimentally. The effects of key parameters on the magnetically modulated route are analysed. The simulation and experimental results demonstrate that the MMR-EH can effectively harvest the energy from ultra-low frequency (3 Hz) and irregular vibration. At a reciprocating vibration frequency of 10 Hz and an amplitude of 20 mm, the harvester can produce an average power of 0.29 mW.
doi_str_mv 10.1007/s11431-020-1595-x
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subjects Ambience
Dynamic models
Energy
Energy conversion
Energy harvesting
Energy methods
Engineering
Extremely low frequencies
Magnetic fields
Potential energy
Vibration
title Design, modeling and experimental investigation of a magnetically modulated rotational energy harvester for low frequency and irregular vibration
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