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References (66)
-
R. Kishore, D. Vučković, S. Priya (2014)
Ultra-Low Wind Speed Piezoelectric WindmillFerroelectrics, 460
-
Ting Tan, Zhimiao Yan (2016)
Electromechanical decoupled model for cantilever-beam piezoelectric energy harvesters with inductive-resistive circuits and its application in galloping modeSmart Materials and Structures, 26
-
Thad Starner (1996)
Human-Powered Wearable ComputingIBM Syst. J., 35
-
Accelerometers/vibration sensors -
S. Priya, Chih-Ta Chen, D. Fye, J. Zahnd (2004)
Piezoelectric Windmill: A Novel Solution to Remote SensingJapanese Journal of Applied Physics, 44
-
A. Erturk, D. Inman (2008)
Issues in mathematical modeling of piezoelectric energy harvestersSmart Materials and Structures, 17
-
K. Cook-Chennault, N. Thambi, A. Sastry
Iop Publishing Smart Materials and Structures Powering Mems Portable Devices— a Review of Non-regenerative and Regenerative Power Supply Systems with Special Emphasis on Piezoelectric Energy Harvesting Systems -
H. Sodano, D. Inman, G. Park (2005)
Comparison of Piezoelectric Energy Harvesting Devices for Recharging BatteriesJournal of Intelligent Material Systems and Structures, 16
-
Nasrin Rezaei-Hosseinabadi, A. Tabesh, R. Dehghani, Arash Aghili (2015)
An Efficient Piezoelectric Windmill Topology for Energy Harvesting From Low-Speed Air FlowsIEEE Transactions on Industrial Electronics, 62
-
S. Priya (2007)
Advances in energy harvesting using low profile piezoelectric transducersJournal of Electroceramics, 19
-
M. Safaei, H. Sodano, S. Anton (2019)
A review of energy harvesting using piezoelectric materials: state-of-the-art a decade later (2008–2018)Smart Materials and Structures, 28
-
Dongxing Cao, Dongxing Cao, S. Leadenham, A. Erturk (2015)
Internal resonance for nonlinear vibration energy harvestingThe European Physical Journal Special Topics, 224
-
Product Information Catalogue. Lindenstrabe -
Hyeon Lee, N. Sharpes, H. Abdelmoula, A. Abdelkefi, S. Priya (2018)
Higher power generation from torsion-dominant mode in a zigzag shaped two-dimensional energy harvesterApplied Energy, 216
-
X. He, Jun Gao (2013)
Wind energy harvesting based on flow-induced-vibration and impactMicroelectronic Engineering, 111
-
Zhimiao Yan, Weipeng Sun, Ting Tan, Wenhu Huang (2018)
Nonlinear analysis of galloping piezoelectric energy harvesters with inductive-resistive circuits for boundaries of analytical solutionsCommun. Nonlinear Sci. Numer. Simul., 62
-
M. Karami (2012)
Micro-Scale and Nonlinear Vibrational Energy Harvesting -
E. Leland, P. Wright (2006)
Resonance tuning of piezoelectric vibration energy scavenging generators using compressive axial preloadSmart Materials and Structures, 15
-
S. Pobering, N. Schwesinger (2004)
A Novel Hydropower Harvesting Device2004 International Conference on MEMS, NANO and Smart Systems (ICMENS'04)
-
(2019)
V406 permanent magnet shaker -
S. Priya (2005)
Modeling of electric energy harvesting using piezoelectric windmillApplied Physics Letters, 87
-
R. Myers, Michael Vickers, Hyeoungwoo Kim, S. Priya (2007)
Small scale windmillApplied Physics Letters, 90
-
E. Häsler, L. Stein, G. Harbauer (1984)
Implantable physiological power supply with PVDF filmFerroelectrics, 60
-
Y. Shindo, F. Narita (2014)
Dynamic bending/torsion and output power of S-shaped piezoelectric energy harvestersInternational Journal of Mechanics and Materials in Design, 10
-
A. Flynn, S. Sanders (1998)
Fundamental limits on energy transfer and circuit considerations for piezoelectric transformersPESC 98 Record. 29th Annual IEEE Power Electronics Specialists Conference (Cat. No.98CH36196), 2
-
N. Dutoit, B. Wardle, Sang-Gook Kim (2005)
DESIGN CONSIDERATIONS FOR MEMS-SCALE PIEZOELECTRIC MECHANICAL VIBRATION ENERGY HARVESTERSIntegrated Ferroelectrics, 71
-
(2003)
Electric Power Harvesting Using Piezoelectric Materials. Blacksburg, VA: Center for Intelligent Material Systems and Structures, Virginia -
S. Beeby, M. Tudor, N. White (2006)
Energy harvesting vibration sources for microsystems applicationsMeasurement Science and Technology, 17
-
S. Anton, H. Sodano (2007)
A review of power harvesting using piezoelectric materials (2003–2006)Smart Materials and Structures, 16
-
C. Tien, N. Goo (2010)
Use of a piezo‐composite generating element for harvesting wind energy in an urban regionAircraft Engineering and Aerospace Technology, 82
-
S. Orrego, K. Shoele, Andre Ruas, Kyle Doran, Brett Caggiano, R. Mittal, S. Kang (2017)
Harvesting ambient wind energy with an inverted piezoelectric flagApplied Energy, 194
-
A. Abdelkefi, F. Najar, A. Nayfeh, S. Ayed (2011)
An energy harvester using piezoelectric cantilever beams undergoing coupled bending–torsion vibrationsSmart Materials and Structures, 20
-
S. Bressers, D. Avirovik, M. Lallart, D. Inman, S. Priya (2011)
Contact-less Wind Turbine Utilizing Piezoelectric Bimorphs with Magnetic Actuation -
A. Massaro, S. Guido, I. Ingrosso, R. Cingolani, M. Vittorio, M. Cori, A. Bertacchini, L. Larcher, A. Passaseo (2011)
Freestanding piezoelectric rings for high efficiency energy harvesting at low frequencyApplied Physics Letters, 98
-
J. Sirohi, R. Mahadik (2011)
Piezoelectric wind energy harvester for low-power sensorsJournal of Intelligent Material Systems and Structures, 22
-
M. Karami, J. Farmer, D. Inman (2013)
Parametrically excited nonlinear piezoelectric compact wind turbineRenewable Energy, 50
-
N. Kaur, S. Bhalla (2014)
Feasibility of energy harvesting from thin piezo patches via axial strain (d31) actuation modeJournal of Civil Structural Health Monitoring, 4
-
S. Roundy, P. Wright, J. Rabaey (2003)
A study of low level vibrations as a power source for wireless sensor nodesComput. Commun., 26
-
S. Priya, H. Song, Yuan Zhou, R. Varghese, Anuj Chopra, Sang-Gook Kim, I. Kanno, Liao Wu, D. Ha, J. Ryu, R. Polcawich (2019)
A Review on Piezoelectric Energy Harvesting: Materials, Methods, and CircuitsEnergy Harvesting and Systems, 4
-
Liqun Chen, Wen-an Jiang, Meghashyam Panyam, M. Daqaq (2016)
A Broadband Internally-Resonant Vibratory Energy HarvesterJournal of Vibration and Acoustics, 138
-
Wenai Shen, Songye Zhu, Hong-ping Zhu (2019)
Unify Energy Harvesting and Vibration Control Functions in Randomly Excited Structures with Electromagnetic DevicesJournal of Engineering Mechanics
-
Ting Tan, Zhimiao Yan, H. Lei (2017)
Optimization and performance comparison for galloping-based piezoelectric energy harvesters with alternating-current and direct-current interface circuitsSmart Materials and Structures, 26
-
H. Sodano, D. Inman, G. Park (2004)
A Review of Power Harvesting from Vibration using Piezoelectric MaterialsThe Shock and Vibration Digest, 36
-
Y. Tan, S. Panda (2007)
A Novel Piezoelectric Based Wind Energy Harvester for Low-power Autonomous Wind Speed SensorIECON 2007 - 33rd Annual Conference of the IEEE Industrial Electronics Society
-
S. Roundy (2003)
Energy Scavenging for Wireless Sensor Nodes with a Focus on Vibration-to-Electricity Conversion -
M. Goldfarb, Lowell Jones (1999)
On the Efficiency of Electric Power Generation With Piezoelectric CeramicJournal of Dynamic Systems Measurement and Control-transactions of The Asme, 121
-
Jingquan Liu, Hua-Bin Fang, Zheng-Yi Xu, Xinkai Mao, Xiu-Cheng Shen, Di Chen, Hang Liao, B. Cai (2008)
A MEMS-based piezoelectric power generator array for vibration energy harvestingMicroelectron. J., 39
-
S. Roundy, P. Wright (2004)
Institute of Physics Publishing Smart Materials and Structures a Piezoelectric Vibration Based Generator for Wireless Electronics -
Jiantao Zhang, Z. Fang, Chang Shu, Jia Zhang, Quan Zhang, Chaodong Li (2017)
A rotational piezoelectric energy harvester for efficient wind energy harvestingSensors and Actuators A-physical, 262
-
E. T, S. Roundy, E. Leland, Jessy Baker, Eric Carleton, E. Reilly, Elaine Lai, Brian Otis, J. Rabaey, P. Wright, V. Sundararajan (2005)
Improving power output for vibration-based energy scavengersIEEE Pervasive Computing, 4
-
A. Abdelkefi, Zhimiao Yan, M. Hajj (2013)
Modeling and nonlinear analysis of piezoelectric energy harvesting from transverse gallopingSmart Materials and Structures, 22
-
A. Aktan, F. Catbas, K. Grimmelsman, C. Tsikos (2000)
ISSUES IN INFRASTRUCTURE HEALTH MONITORING FOR MANAGEMENTJournal of Engineering Mechanics-asce, 126
-
D. Pan, Ben Ma, F. Dai (2017)
Experimental investigation of broadband energy harvesting of a bi-stable composite piezoelectric plateSmart Materials and Structures, 26
-
Huidong Li, Chuan Tian, Z. Deng, Daniel Deng (2014)
Energy harvesting from low frequency applications using piezoelectric materialsApplied physics reviews, 1
-
F. Petrini, K. Gkoumas (2018)
Piezoelectric energy harvesting from vortex shedding and galloping induced vibrations inside HVAC ductsEnergy and Buildings, 158
-
Junlei Wang, Shengxi Zhou, Zhien Zhang, D. Yurchenko (2019)
High-performance piezoelectric wind energy harvester with Y-shaped attachmentsEnergy Conversion and Management
-
N. Kaur, S. Bhalla (2015)
Combined Energy Harvesting and Structural Health Monitoring Potential of Embedded Piezo-Concrete Vibration SensorsJournal of Energy Engineering-asce, 141
-
Liya Zhao, Yaowen Yang (2018)
An impact-based broadband aeroelastic energy harvester for concurrent wind and base vibration energy harvestingApplied Energy, 212
-
Yang Ying, Qin-ping Shen, Jiamei Jin, Yiping Wang, Wang-jie Qian, Dewang Yuan (2014)
Rotational piezoelectric wind energy harvesting using impact-induced resonanceApplied Physics Letters, 105
-
Wenai Shen, Songye Zhu, You‐lin Xu (2012)
An experimental study on self-powered vibration control and monitoring system using electromagnetic TMD and wireless sensorsSensors and Actuators A-physical, 180
-
G. Park, T. Rosing, M. Todd, C. Farrar, W. Hodgkiss (2008)
Energy Harvesting for Structural Health Monitoring Sensor NetworksJournal of Infrastructure Systems, 14
-
Wenai Shen, Songye Zhu, Hong-ping Zhu (2016)
Experimental study on using electromagnetic devices on bridge stay cables for simultaneous energy harvesting and vibration dampingSmart Materials and Structures, 25
-
Keysight Technologies (2019) Test and Measurement Catalogue -
Michael Ramsay, W. Clark (2001)
Piezoelectric energy harvesting for bio-MEMS applications, 4332
-
Sang Kim, J. Ahn, H. Chung, H. Kang (2011)
Analysis of piezoelectric effects on various loading conditions for energy harvesting in a bridge systemSensors and Actuators A-physical, 167
-
D. Shen, Jung-Hyun Park, J. Noh, S. Choe, Seung-Hyun Kim, H. Wikle, Dong-Joo Kim (2009)
Micromachined PZT cantilever based on SOI structure for low frequency vibration energy harvestingSensors and Actuators A-physical, 154
- Publisher
- SAGE
- Copyright
- © The Author(s) 2019
- ISSN
- 1369-4332
- eISSN
- 2048-4011
- DOI
- 10.1177/1369433219886956
- Publisher site
- See Article on Publisher Site
Abstract
Energy harvesting is an emerging technology holding promise of sustainability amid the alarming rate at which the human community is depleting the natural resources to cater its needs. There are several ways of harvesting energy in a renewable fashion such as through solar, wind, hydro-electric, geothermal, and artificial photosynthesis. This study focuses on energy harvesting from wind vibrations and ambient structural vibrations (such as from rail and road bridges) through piezo transducers using the direct piezoelectric effect. First, the potential of the piezoelectric energy harvesting from ambient wind vibrations has been investigated and presented here. Lead zirconate titanate patches have been attached at the fixed end of aluminum rectangular and trapezoidal cantilevers, which have been exposed to varying wind velocity in a lab-size wind tunnel. The effect of perforations and twisting (distortion) on the power generated by the patches under varying wind velocity has also been studied. It has been observed that the power is comparatively higher in rectangular-shaped cantilever than the trapezoidal one. Perforations and shape distortion showed promising result in terms of higher yield. The laboratory experiments have also been extended to the real-life field condition to measure the actual power generated by the lead zirconate titanate patches under the ambient wind vibrations. Next, energy harvesting from the ambient structural vibrations has been done both experimentally and numerically. Four different prototypes have been considered. The power has been measured across the lead zirconate titanate patches individually and in parallel combination. A maximum power output for Prototype 1 to Prototype 4 has been found to be 4.3428, 11.844, 25.97, and 43.12 µW, respectively. Numerical study has also been carried out in ANSYS 14.5 to perform the parametric study to examine the effect of addition of mass at the free end of cantilever. In a nutshell, this article provides a comprehensive study on the effect of various factors on the amount of energy generated by piezoelectric patches under wind and structural vibrations. The energy generated is sufficient for driving low-power-consuming electronics that can further be used for other applications like wireless structural health monitoring, and so on.
Journal
Advances in Structural Engineering – SAGE
Published: Apr 1, 2020