Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester

Vibration-based energy harvesters brought the idea of self-powered sensors to reality in the past few years. Many strategies to improve the performance of linear vibration energy harvesters that collect energy over a limited bandwidth have been proposed. In this paper, a bi-stable two degrees of fre...

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Main Authors: Abdelhameed A. A. Zayed, Samy F. M. Assal, Kimihiko Nakano, Tsutomu Kaizuka, Ahmed M. R. Fath El-Bab
Format: Article
Language:English
Published: MDPI AG 2019-06-01
Series:Sensors
Subjects:
Online Access:https://www.mdpi.com/1424-8220/19/13/2893
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author Abdelhameed A. A. Zayed
Samy F. M. Assal
Kimihiko Nakano
Tsutomu Kaizuka
Ahmed M. R. Fath El-Bab
author_facet Abdelhameed A. A. Zayed
Samy F. M. Assal
Kimihiko Nakano
Tsutomu Kaizuka
Ahmed M. R. Fath El-Bab
author_sort Abdelhameed A. A. Zayed
collection DOAJ
description Vibration-based energy harvesters brought the idea of self-powered sensors to reality in the past few years. Many strategies to improve the performance of linear vibration energy harvesters that collect energy over a limited bandwidth have been proposed. In this paper, a bi-stable two degrees of freedom (2-DOF) cut-out vibration energy harvester employing a pair of permanent magnets is designed through a proposed design methodology. Based on this methodology, the nonlinear harvesters can be optimally designed such that the bandwidth can be widened for a targeted output voltage. The proper selection of the harvester parameters as well as the gap distances between the tip and the fixed magnets are the bases of this methodology. The mathematical modeling of the proposed harvester and the formula for the potential energy between the tip and the fixed magnets are presented. Additionally, to enhance the performance of the bi-stable energy harvester (BEH), a quad-stable energy harvester (QEH) was configured by adding more fixed magnets. Experiments were performed to validate the numerical simulations and the results showed that, the simulation and experimental results are consistent. The results indicate that, the QEH covers a wider bandwidth than the BEH and based on a figure of merit the QEH shows the best performance among many harvesters presented in the literature.
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spelling doaj.art-14f2861c2b534504bb9f68d127e81fb92022-12-22T02:15:05ZengMDPI AGSensors1424-82202019-06-011913289310.3390/s19132893s19132893Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy HarvesterAbdelhameed A. A. Zayed0Samy F. M. Assal1Kimihiko Nakano2Tsutomu Kaizuka3Ahmed M. R. Fath El-Bab4Department of Mechatronics and Robotics Engineering, Egypt- Japan University of Science and Technology (E-JUST), Alexandria 21934, EgyptDepartment of Mechatronics and Robotics Engineering, Egypt- Japan University of Science and Technology (E-JUST), Alexandria 21934, EgyptInstitute of Industrial Science, The University of Tokyo, 4 -6-1 Komaba, Meguro-ku, Tokyo 153-8505, JapanInstitute of Industrial Science, The University of Tokyo, 4 -6-1 Komaba, Meguro-ku, Tokyo 153-8505, JapanDepartment of Mechatronics and Robotics Engineering, Egypt- Japan University of Science and Technology (E-JUST), Alexandria 21934, EgyptVibration-based energy harvesters brought the idea of self-powered sensors to reality in the past few years. Many strategies to improve the performance of linear vibration energy harvesters that collect energy over a limited bandwidth have been proposed. In this paper, a bi-stable two degrees of freedom (2-DOF) cut-out vibration energy harvester employing a pair of permanent magnets is designed through a proposed design methodology. Based on this methodology, the nonlinear harvesters can be optimally designed such that the bandwidth can be widened for a targeted output voltage. The proper selection of the harvester parameters as well as the gap distances between the tip and the fixed magnets are the bases of this methodology. The mathematical modeling of the proposed harvester and the formula for the potential energy between the tip and the fixed magnets are presented. Additionally, to enhance the performance of the bi-stable energy harvester (BEH), a quad-stable energy harvester (QEH) was configured by adding more fixed magnets. Experiments were performed to validate the numerical simulations and the results showed that, the simulation and experimental results are consistent. The results indicate that, the QEH covers a wider bandwidth than the BEH and based on a figure of merit the QEH shows the best performance among many harvesters presented in the literature.https://www.mdpi.com/1424-8220/19/13/28932-DOFmulti-stabilitynonlinear energy harvestingpiezoelectricmagnetic interaction
spellingShingle Abdelhameed A. A. Zayed
Samy F. M. Assal
Kimihiko Nakano
Tsutomu Kaizuka
Ahmed M. R. Fath El-Bab
Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester
Sensors
2-DOF
multi-stability
nonlinear energy harvesting
piezoelectric
magnetic interaction
title Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester
title_full Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester
title_fullStr Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester
title_full_unstemmed Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester
title_short Design Procedure and Experimental Verification of a Broadband Quad-Stable 2-DOF Vibration Energy Harvester
title_sort design procedure and experimental verification of a broadband quad stable 2 dof vibration energy harvester
topic 2-DOF
multi-stability
nonlinear energy harvesting
piezoelectric
magnetic interaction
url https://www.mdpi.com/1424-8220/19/13/2893
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