A comparative study on MEMS piezoelectric microgenerators
The growing demand of wireless sensor networks has created the necessity of miniature, portable, long lasting and easily recharged sources of power. Traditional, hazardous batteries are rendered unacceptable and the viability of 'green' MEMS energy harvesters has become even more dominant....
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my.uniten.dspace-307022023-12-29T15:51:34Z A comparative study on MEMS piezoelectric microgenerators Ralib A.A.M. Nordin A.N. Salleh H. 36537608500 7005958999 24067645400 Energy conversion Harvesters Piezoelectric devices Piezoelectricity Vibrations (mechanical) Characteristic equation Comparative studies Conventional batteries Electrical energy Electrical power Energy Harvester Energy scavenger Growing demand High efficiency Long lasting Maximum power output Mechanical vibrations Microgenerators Operating modes Piezoelectric energy Wireless sensor networks The growing demand of wireless sensor networks has created the necessity of miniature, portable, long lasting and easily recharged sources of power. Traditional, hazardous batteries are rendered unacceptable and the viability of 'green' MEMS energy harvesters has become even more dominant. This paper reviews the state-of-theart MEMS piezoelectric energy harvesters which promise a cleaner environment and eliminate the disposal issue of conventional batteries. Piezoelectric devices are the perfect candidate for implementation in micro generators as they are easily fabricated, are silicon compatible and demonstrate high efficiencies for mechanical to electrical energy conversion. The characteristic equations which govern the conversion of mechanical vibration to electrical power are described in this paper. The typical operating modes for MEMS piezoelectric energy cantilevers which are namely; d31 and d33 are also detailed. Criteria for optimum material suitable for MEMS energy scavengers to produce maximum power output are also outlined. Several MEMS energy harvesters which have been successfully fabricated and tested are also critically reviewed in this paper. Finally a comparison table highlighting the advantages and disadvantages of each work is presented. � Springer-Verlag 2010. Final 2023-12-29T07:51:34Z 2023-12-29T07:51:34Z 2010 Review 10.1007/s00542-010-1086-9 2-s2.0-78149407459 https://www.scopus.com/inward/record.uri?eid=2-s2.0-78149407459&doi=10.1007%2fs00542-010-1086-9&partnerID=40&md5=53d4a3ef45f2af1811b83972e8f095e6 https://irepository.uniten.edu.my/handle/123456789/30702 16 10 1673 1681 Scopus |
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Energy conversion Harvesters Piezoelectric devices Piezoelectricity Vibrations (mechanical) Characteristic equation Comparative studies Conventional batteries Electrical energy Electrical power Energy Harvester Energy scavenger Growing demand High efficiency Long lasting Maximum power output Mechanical vibrations Microgenerators Operating modes Piezoelectric energy Wireless sensor networks |
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Energy conversion Harvesters Piezoelectric devices Piezoelectricity Vibrations (mechanical) Characteristic equation Comparative studies Conventional batteries Electrical energy Electrical power Energy Harvester Energy scavenger Growing demand High efficiency Long lasting Maximum power output Mechanical vibrations Microgenerators Operating modes Piezoelectric energy Wireless sensor networks Ralib A.A.M. Nordin A.N. Salleh H. A comparative study on MEMS piezoelectric microgenerators |
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The growing demand of wireless sensor networks has created the necessity of miniature, portable, long lasting and easily recharged sources of power. Traditional, hazardous batteries are rendered unacceptable and the viability of 'green' MEMS energy harvesters has become even more dominant. This paper reviews the state-of-theart MEMS piezoelectric energy harvesters which promise a cleaner environment and eliminate the disposal issue of conventional batteries. Piezoelectric devices are the perfect candidate for implementation in micro generators as they are easily fabricated, are silicon compatible and demonstrate high efficiencies for mechanical to electrical energy conversion. The characteristic equations which govern the conversion of mechanical vibration to electrical power are described in this paper. The typical operating modes for MEMS piezoelectric energy cantilevers which are namely; d31 and d33 are also detailed. Criteria for optimum material suitable for MEMS energy scavengers to produce maximum power output are also outlined. Several MEMS energy harvesters which have been successfully fabricated and tested are also critically reviewed in this paper. Finally a comparison table highlighting the advantages and disadvantages of each work is presented. � Springer-Verlag 2010. |
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36537608500 |
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36537608500 Ralib A.A.M. Nordin A.N. Salleh H. |
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author |
Ralib A.A.M. Nordin A.N. Salleh H. |
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Ralib A.A.M. |
title |
A comparative study on MEMS piezoelectric microgenerators |
title_short |
A comparative study on MEMS piezoelectric microgenerators |
title_full |
A comparative study on MEMS piezoelectric microgenerators |
title_fullStr |
A comparative study on MEMS piezoelectric microgenerators |
title_full_unstemmed |
A comparative study on MEMS piezoelectric microgenerators |
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comparative study on mems piezoelectric microgenerators |
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2023 |
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1806427376020619264 |
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