A Nonlinear Magnetic Coupling Piezoelectric‐Electromagnetic Multi‐Source Energy Harvester for Smart Grid Monitoring Sensors

ABSTRACT Aiming at the power supply problem of online monitoring sensor nodes of high‐voltage transmission lines in smart grids, a multi‐source energy harvester is presented to effectively harvest the magnetic field energy and wind energy of transmission lines. Based on the piezoelectric‐electromagnetic working principle, in the designed structure, the piezoelectric and electromagnetic hybrid energy harvester is simultaneously excited by the rotary magnets, generating a synergistic effect, which can significantly enhance the energy harvesting efficiency. The experimental results indicate that the electromagnetic generator(EMG) unit achieves a maximum output voltage of 4.5 V and a load power of 14.5 mW at 900 rpm, while the piezoelectric generator(PEG) unit reaches an output voltage of 15.1 V and a load power of 0.51 mW when the current is 14 A. Subsequently, the generated outputs are utilized for capacitor charging, demonstrating that the integrated performance of the two units is significantly superior to that of the individual units. Finally, a realistic application further shows that the device can successfully provide an effective and sustainable solution for self‐powered wireless sensor nodes in smart grids operating in complex environments.

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Publication Details

Journal
Advanced Materials Technologies
Published
2026-02-13
DOI
https://doi.org/10.1002/admt.202502449
Primary Topic
Innovative Energy Harvesting Technologies
Type
article
Field-Weighted Citation Impact
0.00

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article

A Nonlinear Magnetic Coupling Piezoelectric‐Electromagnetic Multi‐Source Energy Harvester for Smart Grid Monitoring Sensors

Yikai Wang, Z. S. Li, Dandan Yuan, Fang Xu et al.
Advanced Materials Technologies
Innovative Energy Harvesting Technologies
article

A Nonlinear Magnetic Coupling Piezoelectric‐Electromagnetic Multi‐Source Energy Harvester for Smart Grid Monitoring Sensors

Yikai Wang, Z. S. Li, Dandan Yuan, Fang Xu, Gang Zeng, Yan Li, Xiao‐Zhen Deng, Shao‐Jie Wu, Jia‐Yu Chen, Sen‐Lin Rao, Xiao‐Xiao Yan, Ping‐Xian Liu, Gang Tang
article en

Abstract

ABSTRACT Aiming at the power supply problem of online monitoring sensor nodes of high‐voltage transmission lines in smart grids, a multi‐source energy harvester is presented to effectively harvest the magnetic field energy and wind energy of transmission lines. Based on the piezoelectric‐electromagnetic working principle, in the designed structure, the piezoelectric and electromagnetic hybrid energy harvester is simultaneously excited by the rotary magnets, generating a synergistic effect, which can significantly enhance the energy harvesting efficiency. The experimental results indicate that the electromagnetic generator(EMG) unit achieves a maximum output voltage of 4.5 V and a load power of 14.5 mW at 900 rpm, while the piezoelectric generator(PEG) unit reaches an output voltage of 15.1 V and a load power of 0.51 mW when the current is 14 A. Subsequently, the generated outputs are utilized for capacitor charging, demonstrating that the integrated performance of the two units is significantly superior to that of the individual units. Finally, a realistic application further shows that the device can successfully provide an effective and sustainable solution for self‐powered wireless sensor nodes in smart grids operating in complex environments.

Advanced Materials Technologies
Jiangxi Provincial Institute of Water Sciences (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 57%
Innovative Energy Harvesting Technologies
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A Nonlinear Magnetic Coupling Piezoelectric‐Electromagnetic Multi‐Source Energy Harvester for Smart Grid Monitoring Sensors — Yikai Wang, Z. S. Li, et al. · Advanced Materials Technologies (2026) | TGRS Research Map | TGRS