Semi-active torsional vibration isolation utilizing magnetorheological elastomer

In rotating machinery, unattenuated excessive torsional vibration leads to damage and excessive wear. This type of vibration, which is transferred from one structure to another can be estimated using torsional transmissibility factor (TTF). The value of the TTF describes the ratio of output to inp...

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Main Authors: Marzuki, Wan M.R.W., Abdul Muthalif, Asan Gani, Nordin, N. H.Diyana
Format: Article
Language:English
English
Published: Poznan University of Technology 2018
Subjects:
Online Access:http://irep.iium.edu.my/66019/
http://irep.iium.edu.my/66019/1/66019_Semi-Active%20Torsional%20Vibration%20Isolation_article.pdf
http://irep.iium.edu.my/66019/2/66019_Semi-Active%20Torsional%20Vibration%20Isolation_scopus.pdf
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author Marzuki, Wan M.R.W.
Abdul Muthalif, Asan Gani
Nordin, N. H.Diyana
author_facet Marzuki, Wan M.R.W.
Abdul Muthalif, Asan Gani
Nordin, N. H.Diyana
author_sort Marzuki, Wan M.R.W.
building IIUM Repository
collection Online Access
description In rotating machinery, unattenuated excessive torsional vibration leads to damage and excessive wear. This type of vibration, which is transferred from one structure to another can be estimated using torsional transmissibility factor (TTF). The value of the TTF describes the ratio of output to input and reaches its peak at the natural frequency. Hence, the ability to vary coupling stiffness of two rotating shafts will allow the control of the TTF towards better performance and preventions from fatigue loading. Traditionally, passive rubbers are used as a flexible coupling in between two shafts. However, the constant passive stiffness of the material limits its performance. To address this issue, an adaptive coupling based on magnetorheological elastomer (MRE) is proposed to achieve better TTF at varying frequencies. Mathematical modelling, simulation study and experimental results of MRE for torsional vibration isolation are presented in this work. Natural frequency obtained from the TTF shows an increase of about 3 Hz when current changed from 1 to 6 A.
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institution International Islamic University Malaysia
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language English
English
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publishDate 2018
publisher Poznan University of Technology
recordtype eprints
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spelling iium-660192018-08-30T05:33:10Z http://irep.iium.edu.my/66019/ Semi-active torsional vibration isolation utilizing magnetorheological elastomer Marzuki, Wan M.R.W. Abdul Muthalif, Asan Gani Nordin, N. H.Diyana TJ Mechanical engineering and machinery TJ241 Machine construction (General) TS Manufactures In rotating machinery, unattenuated excessive torsional vibration leads to damage and excessive wear. This type of vibration, which is transferred from one structure to another can be estimated using torsional transmissibility factor (TTF). The value of the TTF describes the ratio of output to input and reaches its peak at the natural frequency. Hence, the ability to vary coupling stiffness of two rotating shafts will allow the control of the TTF towards better performance and preventions from fatigue loading. Traditionally, passive rubbers are used as a flexible coupling in between two shafts. However, the constant passive stiffness of the material limits its performance. To address this issue, an adaptive coupling based on magnetorheological elastomer (MRE) is proposed to achieve better TTF at varying frequencies. Mathematical modelling, simulation study and experimental results of MRE for torsional vibration isolation are presented in this work. Natural frequency obtained from the TTF shows an increase of about 3 Hz when current changed from 1 to 6 A. Poznan University of Technology 2018-05 Article PeerReviewed application/pdf en http://irep.iium.edu.my/66019/1/66019_Semi-Active%20Torsional%20Vibration%20Isolation_article.pdf application/pdf en http://irep.iium.edu.my/66019/2/66019_Semi-Active%20Torsional%20Vibration%20Isolation_scopus.pdf Marzuki, Wan M.R.W. and Abdul Muthalif, Asan Gani and Nordin, N. H.Diyana (2018) Semi-active torsional vibration isolation utilizing magnetorheological elastomer. Vibrations in Physical Systems, 29. pp. 1-8. ISSN 0860-6897 http://vibsys.put.poznan.pl/_journal/2018-29/articles/vibsys_2018014.pdf
spellingShingle TJ Mechanical engineering and machinery
TJ241 Machine construction (General)
TS Manufactures
Marzuki, Wan M.R.W.
Abdul Muthalif, Asan Gani
Nordin, N. H.Diyana
Semi-active torsional vibration isolation utilizing magnetorheological elastomer
title Semi-active torsional vibration isolation utilizing magnetorheological elastomer
title_full Semi-active torsional vibration isolation utilizing magnetorheological elastomer
title_fullStr Semi-active torsional vibration isolation utilizing magnetorheological elastomer
title_full_unstemmed Semi-active torsional vibration isolation utilizing magnetorheological elastomer
title_short Semi-active torsional vibration isolation utilizing magnetorheological elastomer
title_sort semi-active torsional vibration isolation utilizing magnetorheological elastomer
topic TJ Mechanical engineering and machinery
TJ241 Machine construction (General)
TS Manufactures
url http://irep.iium.edu.my/66019/
http://irep.iium.edu.my/66019/
http://irep.iium.edu.my/66019/1/66019_Semi-Active%20Torsional%20Vibration%20Isolation_article.pdf
http://irep.iium.edu.my/66019/2/66019_Semi-Active%20Torsional%20Vibration%20Isolation_scopus.pdf