Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification

We established a friction energy dissipation model for particle damping based on powder mechanics. We investigated the influence of geometric features of the damper on damping characteristics; and the geometric feature studied was the depth and length of the rectangular particle container. The work...

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Main Authors: Wangqiang XIAO, Wei LI
Format: Article
Language:English
Published: IFSA Publishing, S.L. 2014-04-01
Series:Sensors & Transducers
Subjects:
Online Access:http://www.sensorsportal.com/HTML/DIGEST/april_2014/Vol_168/P_1997.pdf
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spelling doaj-235f15b664f345abbe459445153d19bc2020-11-24T21:43:26ZengIFSA Publishing, S.L.Sensors & Transducers1726-54791726-54792014-04-011684311317Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental VerificationWangqiang XIAO0Wei LI1 Department of Mechanical and Electrical Engineering, Xiamen University, Xiamen 361005, China School of Mechanical Engineering, University of Science and Technology Beijing, Beijing 100083, ChinaWe established a friction energy dissipation model for particle damping based on powder mechanics. We investigated the influence of geometric features of the damper on damping characteristics; and the geometric feature studied was the depth and length of the rectangular particle container. The work done by the frictional force between the particle layer and the effect of particle filling rate on the vibration damping characteristics was also explored. We analyzed the friction energy dissipation model, and the relationship between the particle filling rate and the vibration damping. The experimental results show good agreement with the friction energy dissipation model, which verifies the proposed simulation prediction. The results have shown that the particle damping technology can greatly consume the structure kinetic energy, and the vibration reduction effect of particle damping depends mainly on the interaction of the particles near the top. A proper filling rate of particle systems can result in an optimal effect on vibration reduction, which will provide the engineering applications with the theoretical guidance and design criteria. http://www.sensorsportal.com/HTML/DIGEST/april_2014/Vol_168/P_1997.pdfParticle systemsPowder mechanicsFriction energy dissipationExperimental verificationDamping characterization.
collection DOAJ
language English
format Article
sources DOAJ
author Wangqiang XIAO
Wei LI
spellingShingle Wangqiang XIAO
Wei LI
Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification
Sensors & Transducers
Particle systems
Powder mechanics
Friction energy dissipation
Experimental verification
Damping characterization.
author_facet Wangqiang XIAO
Wei LI
author_sort Wangqiang XIAO
title Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification
title_short Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification
title_full Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification
title_fullStr Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification
title_full_unstemmed Damping Characterization of Friction Energy Dissipation for Particle Systems Based on Powder Mechanics and Experimental Verification
title_sort damping characterization of friction energy dissipation for particle systems based on powder mechanics and experimental verification
publisher IFSA Publishing, S.L.
series Sensors & Transducers
issn 1726-5479
1726-5479
publishDate 2014-04-01
description We established a friction energy dissipation model for particle damping based on powder mechanics. We investigated the influence of geometric features of the damper on damping characteristics; and the geometric feature studied was the depth and length of the rectangular particle container. The work done by the frictional force between the particle layer and the effect of particle filling rate on the vibration damping characteristics was also explored. We analyzed the friction energy dissipation model, and the relationship between the particle filling rate and the vibration damping. The experimental results show good agreement with the friction energy dissipation model, which verifies the proposed simulation prediction. The results have shown that the particle damping technology can greatly consume the structure kinetic energy, and the vibration reduction effect of particle damping depends mainly on the interaction of the particles near the top. A proper filling rate of particle systems can result in an optimal effect on vibration reduction, which will provide the engineering applications with the theoretical guidance and design criteria.
topic Particle systems
Powder mechanics
Friction energy dissipation
Experimental verification
Damping characterization.
url http://www.sensorsportal.com/HTML/DIGEST/april_2014/Vol_168/P_1997.pdf
work_keys_str_mv AT wangqiangxiao dampingcharacterizationoffrictionenergydissipationforparticlesystemsbasedonpowdermechanicsandexperimentalverification
AT weili dampingcharacterizationoffrictionenergydissipationforparticlesystemsbasedonpowdermechanicsandexperimentalverification
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