A simulation of the comminution process of homogenized lithium-ion battery models

The simulation of the comminution process of a lithium-ion battery model and evaluation of the performance of three cylindrical battery models derived from previous studies were achieved in the present study. The finite element method (FEM) was used along with dynamic simulation procedures. The mod...

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Main Authors: Wibisono, Fairuz Alfalah, Mahardika, Muslim, Arifvianto, Budi, Fismatika, Akhmad Tito, Muflikhun, Muhammad Akhsin
Format: Article PeerReviewed
Language:English
Published: Springer 2022
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Online Access:https://repository.ugm.ac.id/278605/1/Wibisono_TK.pdf
https://repository.ugm.ac.id/278605/
https://link.springer.com/article/10.1007/s12206-022-0615-7
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spelling id-ugm-repo.2786052023-11-02T02:01:29Z https://repository.ugm.ac.id/278605/ A simulation of the comminution process of homogenized lithium-ion battery models Wibisono, Fairuz Alfalah Mahardika, Muslim Arifvianto, Budi Fismatika, Akhmad Tito Muflikhun, Muhammad Akhsin Industrial Engineering Mechanical Engineering The simulation of the comminution process of a lithium-ion battery model and evaluation of the performance of three cylindrical battery models derived from previous studies were achieved in the present study. The finite element method (FEM) was used along with dynamic simulation procedures. The models were classified based on the battery material model parameters used in the analysis, namely type A, B, and C models. The battery material models of type A and C were unable to provide results that were consistent with real-world circumstances. In contrast, the type B model gives a realistic battery dynamic reaction. Additional testing on the type B model was performed in terms of battery shard size, fracture energy, comminution pressures, element displacement, battery element velocity, and device capacity calculation. The simulation results revealed that the type B model in this study is capable of properly predicting the dynamic response of the battery, notably when compared to the other two models. The study in the present research could be used in the future to identify the proper cutting tool geometry, estimate the size of the comminution product, and play an important role in the design and optimization of the comminution machine. Springer 2022-07-02 Article PeerReviewed application/pdf en https://repository.ugm.ac.id/278605/1/Wibisono_TK.pdf Wibisono, Fairuz Alfalah and Mahardika, Muslim and Arifvianto, Budi and Fismatika, Akhmad Tito and Muflikhun, Muhammad Akhsin (2022) A simulation of the comminution process of homogenized lithium-ion battery models. Journal of Mechanical Science and Technology, 36 (7). pp. 3361-3372. ISSN 1738-494X https://link.springer.com/article/10.1007/s12206-022-0615-7 10.1007/s12206-022-0615-7
institution Universitas Gadjah Mada
building UGM Library
continent Asia
country Indonesia
Indonesia
content_provider UGM Library
collection Repository Civitas UGM
language English
topic Industrial Engineering
Mechanical Engineering
spellingShingle Industrial Engineering
Mechanical Engineering
Wibisono, Fairuz Alfalah
Mahardika, Muslim
Arifvianto, Budi
Fismatika, Akhmad Tito
Muflikhun, Muhammad Akhsin
A simulation of the comminution process of homogenized lithium-ion battery models
description The simulation of the comminution process of a lithium-ion battery model and evaluation of the performance of three cylindrical battery models derived from previous studies were achieved in the present study. The finite element method (FEM) was used along with dynamic simulation procedures. The models were classified based on the battery material model parameters used in the analysis, namely type A, B, and C models. The battery material models of type A and C were unable to provide results that were consistent with real-world circumstances. In contrast, the type B model gives a realistic battery dynamic reaction. Additional testing on the type B model was performed in terms of battery shard size, fracture energy, comminution pressures, element displacement, battery element velocity, and device capacity calculation. The simulation results revealed that the type B model in this study is capable of properly predicting the dynamic response of the battery, notably when compared to the other two models. The study in the present research could be used in the future to identify the proper cutting tool geometry, estimate the size of the comminution product, and play an important role in the design and optimization of the comminution machine.
format Article
PeerReviewed
author Wibisono, Fairuz Alfalah
Mahardika, Muslim
Arifvianto, Budi
Fismatika, Akhmad Tito
Muflikhun, Muhammad Akhsin
author_facet Wibisono, Fairuz Alfalah
Mahardika, Muslim
Arifvianto, Budi
Fismatika, Akhmad Tito
Muflikhun, Muhammad Akhsin
author_sort Wibisono, Fairuz Alfalah
title A simulation of the comminution process of homogenized lithium-ion battery models
title_short A simulation of the comminution process of homogenized lithium-ion battery models
title_full A simulation of the comminution process of homogenized lithium-ion battery models
title_fullStr A simulation of the comminution process of homogenized lithium-ion battery models
title_full_unstemmed A simulation of the comminution process of homogenized lithium-ion battery models
title_sort simulation of the comminution process of homogenized lithium-ion battery models
publisher Springer
publishDate 2022
url https://repository.ugm.ac.id/278605/1/Wibisono_TK.pdf
https://repository.ugm.ac.id/278605/
https://link.springer.com/article/10.1007/s12206-022-0615-7
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