Electrostatic model of dielectric elastomer generator based on finite element

Abstract When dielectric elastomer materials are used for power generation, bias voltage is applied at both ends of dielectric elastomer film, and there are equal amounts of heterogeneous charges on both sides of the film, so Maxwell electrostatic force is always coupled in the process of power gene...

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Main Authors: Jianbo Cao, Gangqiang Lu, E. Shiju, Zhao Gao, Tianfeng Zhao, Wenjun Xia
Format: Article
Language:English
Published: Nature Publishing Group 2021-07-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-021-93486-0
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spelling doaj-e88cf08b5b534df3a9a356374bb90f6c2021-07-25T11:25:45ZengNature Publishing GroupScientific Reports2045-23222021-07-011111810.1038/s41598-021-93486-0Electrostatic model of dielectric elastomer generator based on finite elementJianbo Cao0Gangqiang Lu1E. Shiju2Zhao Gao3Tianfeng Zhao4Wenjun Xia5College of Information Science and Engineering, Jiaxing UniversityCollege of Engineering, Zhejiang Normal UniversityCollege of Engineering, Zhejiang Normal UniversityCollege of Engineering, Zhejiang Normal UniversityLibrary, Jiaxing UniversityCollege of Engineering, Zhejiang Normal UniversityAbstract When dielectric elastomer materials are used for power generation, bias voltage is applied at both ends of dielectric elastomer film, and there are equal amounts of heterogeneous charges on both sides of the film, so Maxwell electrostatic force is always coupled in the process of power generation. In order to investigate the distribution of Maxwell stress in dielectric elastomer material under electric field, the electrostatic model of dielectric elastomer generator is established in COMSOL finite element simulation software environment in this paper. The distribution of electrostatic force is studied from two aspects of theoretical derivation and simulation, and the magnitude and direction of electrostatic force are determined. The simulation results show that the Maxwell electrostatic force can be equivalent to the tensile force along the film plane and the extrusion force perpendicular to the plane, and they are the same.https://doi.org/10.1038/s41598-021-93486-0
collection DOAJ
language English
format Article
sources DOAJ
author Jianbo Cao
Gangqiang Lu
E. Shiju
Zhao Gao
Tianfeng Zhao
Wenjun Xia
spellingShingle Jianbo Cao
Gangqiang Lu
E. Shiju
Zhao Gao
Tianfeng Zhao
Wenjun Xia
Electrostatic model of dielectric elastomer generator based on finite element
Scientific Reports
author_facet Jianbo Cao
Gangqiang Lu
E. Shiju
Zhao Gao
Tianfeng Zhao
Wenjun Xia
author_sort Jianbo Cao
title Electrostatic model of dielectric elastomer generator based on finite element
title_short Electrostatic model of dielectric elastomer generator based on finite element
title_full Electrostatic model of dielectric elastomer generator based on finite element
title_fullStr Electrostatic model of dielectric elastomer generator based on finite element
title_full_unstemmed Electrostatic model of dielectric elastomer generator based on finite element
title_sort electrostatic model of dielectric elastomer generator based on finite element
publisher Nature Publishing Group
series Scientific Reports
issn 2045-2322
publishDate 2021-07-01
description Abstract When dielectric elastomer materials are used for power generation, bias voltage is applied at both ends of dielectric elastomer film, and there are equal amounts of heterogeneous charges on both sides of the film, so Maxwell electrostatic force is always coupled in the process of power generation. In order to investigate the distribution of Maxwell stress in dielectric elastomer material under electric field, the electrostatic model of dielectric elastomer generator is established in COMSOL finite element simulation software environment in this paper. The distribution of electrostatic force is studied from two aspects of theoretical derivation and simulation, and the magnitude and direction of electrostatic force are determined. The simulation results show that the Maxwell electrostatic force can be equivalent to the tensile force along the film plane and the extrusion force perpendicular to the plane, and they are the same.
url https://doi.org/10.1038/s41598-021-93486-0
work_keys_str_mv AT jianbocao electrostaticmodelofdielectricelastomergeneratorbasedonfiniteelement
AT gangqianglu electrostaticmodelofdielectricelastomergeneratorbasedonfiniteelement
AT eshiju electrostaticmodelofdielectricelastomergeneratorbasedonfiniteelement
AT zhaogao electrostaticmodelofdielectricelastomergeneratorbasedonfiniteelement
AT tianfengzhao electrostaticmodelofdielectricelastomergeneratorbasedonfiniteelement
AT wenjunxia electrostaticmodelofdielectricelastomergeneratorbasedonfiniteelement
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