Magnet-Actuated Piezoelectric Harvester for Energy Harvesting from Fluids

Energy harvesting has been at the forefront of research due to the significant interest in green energy sources, especially for powering remote sensors in structural health monitoring of coastal and offshore facilities. This work reports the magnet-actuated piezoelectric harvesters (M-APH) that use...

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Published inApplied mechanics and materials Vol. 909; pp. 89 - 98
Main Authors Nazar, Ali Matin, Egbe, King James, Jiao, Peng Cheng
Format Journal Article
LanguageEnglish
Published Zurich Trans Tech Publications Ltd 28.09.2022
Subjects
Actuation
Clean energy
Energy
Energy harvesting
Magnetic properties
Magnets
Performance evaluation
Piezoelectric films
Remote monitoring
Remote sensors
Silicon
Strip
Structural health monitoring
Three dimensional printing
Fluid Flow
Magnet-Actuated Systems
Piezoelectric Materials
PVDF
Piezoelectric Energy Harvesters (PEH)
Online AccessGet full text
ISSN1660-9336
1662-7482
1662-7482
DOI10.4028/p-0y10s0

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Abstract Energy harvesting has been at the forefront of research due to the significant interest in green energy sources, especially for powering remote sensors in structural health monitoring of coastal and offshore facilities. This work reports the magnet-actuated piezoelectric harvesters (M-APH) that use magnetic coupling to actuate piezoelectric film-embedded silicon rubber strips for energy harvesting from fluids. The piezo-silicon strips are deflected by the tip-magnets in the actuation system, such that the M-APH can effectively be triggered to generate electrical energy from vibration. The M-APH prototypes are printed using 3D printing technology, and the experiments are conducted to determine the output electrical voltage using a rectifier. Strip properties are varied to study the geometric influence (i.e., thickness and shape) on the energy performance. The electrical performance was evaluated for each curved piezoelectric strip and straight strips according to the piezoelectric material used. The reported M-APH can be applied to various fluids for energy harvesting.
AbstractList Energy harvesting has been at the forefront of research due to the significant interest in green energy sources, especially for powering remote sensors in structural health monitoring of coastal and offshore facilities. This work reports the magnet-actuated piezoelectric harvesters (M-APH) that use magnetic coupling to actuate piezoelectric film-embedded silicon rubber strips for energy harvesting from fluids. The piezo-silicon strips are deflected by the tip-magnets in the actuation system, such that the M-APH can effectively be triggered to generate electrical energy from vibration. The M-APH prototypes are printed using 3D printing technology, and the experiments are conducted to determine the output electrical voltage using a rectifier. Strip properties are varied to study the geometric influence (i.e., thickness and shape) on the energy performance. The electrical performance was evaluated for each curved piezoelectric strip and straight strips according to the piezoelectric material used. The reported M-APH can be applied to various fluids for energy harvesting.
Author Egbe, King James
Jiao, Peng Cheng
Nazar, Ali Matin
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  fullname: Jiao, Peng Cheng
  email: pjiao@zju.edu.cn
  organization: Zhejiang University : Institute of Port, Coastal and Offshore Engineering
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Keywords Fluid Flow
Magnet-Actuated Systems
Piezoelectric Materials
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Snippet Energy harvesting has been at the forefront of research due to the significant interest in green energy sources, especially for powering remote sensors in...
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SubjectTerms Actuation
Clean energy
Energy
Energy harvesting
Magnetic properties
Magnets
Performance evaluation
Piezoelectric films
Remote monitoring
Remote sensors
Silicon
Strip
Structural health monitoring
Three dimensional printing
Title Magnet-Actuated Piezoelectric Harvester for Energy Harvesting from Fluids
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