A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam

Spring-supported fine particle impact damper which integrates the effects of elastic deformation and the plastic deformation performs excellently on the attenuation of vibration in cantilever beam. This article studies the damping performance of spring-supported fine particle impact damper experimen...

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Main Author: Yanchen Du
Format: Article
Language:English
Published: SAGE Publishing 2017-05-01
Series:Advances in Mechanical Engineering
Online Access:https://doi.org/10.1177/1687814017697624
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spelling doaj-71e4d3bd71ba4e91b7523326df00f6092020-11-25T03:36:32ZengSAGE PublishingAdvances in Mechanical Engineering1687-81402017-05-01910.1177/1687814017697624A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beamYanchen DuSpring-supported fine particle impact damper which integrates the effects of elastic deformation and the plastic deformation performs excellently on the attenuation of vibration in cantilever beam. This article studies the damping performance of spring-supported fine particle impact damper experimentally and establishes a dynamic model for understanding its mechanism. Results of the modeling are compared with conducted experiments based on the defined dimensionless structure parameters. The effects of chamber clearance ratio, stiffness ratio, and power ratio are analyzed with the model. As a result, it is shown that the spring-supported fine particle impact damper reduces 80% of the maximum amplitude of cantilever beam at the resonance point which is better compared with the 40% reduction of single impact damper; the dynamic model of the spring-supported fine particle impact damper is reliable, and there exists optimal structure parameters which are 0.15 of clearance ratio and 0.007 of stiffness ratio for achieving the best damping performance.https://doi.org/10.1177/1687814017697624
collection DOAJ
language English
format Article
sources DOAJ
author Yanchen Du
spellingShingle Yanchen Du
A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
Advances in Mechanical Engineering
author_facet Yanchen Du
author_sort Yanchen Du
title A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
title_short A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
title_full A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
title_fullStr A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
title_full_unstemmed A spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
title_sort spring-supported fine particle impact damper to reduce harmonic vibration of cantilever beam
publisher SAGE Publishing
series Advances in Mechanical Engineering
issn 1687-8140
publishDate 2017-05-01
description Spring-supported fine particle impact damper which integrates the effects of elastic deformation and the plastic deformation performs excellently on the attenuation of vibration in cantilever beam. This article studies the damping performance of spring-supported fine particle impact damper experimentally and establishes a dynamic model for understanding its mechanism. Results of the modeling are compared with conducted experiments based on the defined dimensionless structure parameters. The effects of chamber clearance ratio, stiffness ratio, and power ratio are analyzed with the model. As a result, it is shown that the spring-supported fine particle impact damper reduces 80% of the maximum amplitude of cantilever beam at the resonance point which is better compared with the 40% reduction of single impact damper; the dynamic model of the spring-supported fine particle impact damper is reliable, and there exists optimal structure parameters which are 0.15 of clearance ratio and 0.007 of stiffness ratio for achieving the best damping performance.
url https://doi.org/10.1177/1687814017697624
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