Seismic vibration control using a novel inerto-elastic damper

The use of advanced structural control devices is an effective engineering solution to reduce earthquake induced damages to structures. Owing to rapid advancement in technology and persistent research efforts, a variety of control devices have been developed and successfully implemented. Quite recen...

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Main Authors: Abdeddaim Mahdi, Kasar Arnav A., Djedoui Nassim
Format: Article
Language:English
Published: EDP Sciences 2018-01-01
Series:MATEC Web of Conferences
Online Access:https://doi.org/10.1051/matecconf/201821114003
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spelling doaj-aa59aed687f04d0ea33a72cb92fef11a2021-02-02T06:56:29ZengEDP SciencesMATEC Web of Conferences2261-236X2018-01-012111400310.1051/matecconf/201821114003matecconf_vetomacxiv2018_14003Seismic vibration control using a novel inerto-elastic damperAbdeddaim MahdiKasar Arnav A.Djedoui NassimThe use of advanced structural control devices is an effective engineering solution to reduce earthquake induced damages to structures. Owing to rapid advancement in technology and persistent research efforts, a variety of control devices have been developed and successfully implemented. Quite recently, a new passive damper, called inerter has been introduced, which is capable of developing a fictive mass. This study presents a novel inerto-elastic damper, which combines the inerter devices with classical elastic springs, and demonstrates the effectiveness of these devices in achieving seismic response reduction. The inerto-elastic device employs the inerter and elastic spring in parallel to control the seismic structural response. The effectiveness of the inerto-elastic dampers has been demonstrated through the response of a multi-degree of freedom system subjected to seismic excitations. The results of the analysis show a significant reduction in the response of the structure with novel inerto-elastic damper, as compared to those of structures with normal elastic spring as well as no dampers. The response quantities of interest, considered for this study are top floor displacement, inter-storey drift and base shear. The study also underlines optimal parameters for the inerter fictive mass and the elastic spring stiffness on the basis of the results obtained.https://doi.org/10.1051/matecconf/201821114003
collection DOAJ
language English
format Article
sources DOAJ
author Abdeddaim Mahdi
Kasar Arnav A.
Djedoui Nassim
spellingShingle Abdeddaim Mahdi
Kasar Arnav A.
Djedoui Nassim
Seismic vibration control using a novel inerto-elastic damper
MATEC Web of Conferences
author_facet Abdeddaim Mahdi
Kasar Arnav A.
Djedoui Nassim
author_sort Abdeddaim Mahdi
title Seismic vibration control using a novel inerto-elastic damper
title_short Seismic vibration control using a novel inerto-elastic damper
title_full Seismic vibration control using a novel inerto-elastic damper
title_fullStr Seismic vibration control using a novel inerto-elastic damper
title_full_unstemmed Seismic vibration control using a novel inerto-elastic damper
title_sort seismic vibration control using a novel inerto-elastic damper
publisher EDP Sciences
series MATEC Web of Conferences
issn 2261-236X
publishDate 2018-01-01
description The use of advanced structural control devices is an effective engineering solution to reduce earthquake induced damages to structures. Owing to rapid advancement in technology and persistent research efforts, a variety of control devices have been developed and successfully implemented. Quite recently, a new passive damper, called inerter has been introduced, which is capable of developing a fictive mass. This study presents a novel inerto-elastic damper, which combines the inerter devices with classical elastic springs, and demonstrates the effectiveness of these devices in achieving seismic response reduction. The inerto-elastic device employs the inerter and elastic spring in parallel to control the seismic structural response. The effectiveness of the inerto-elastic dampers has been demonstrated through the response of a multi-degree of freedom system subjected to seismic excitations. The results of the analysis show a significant reduction in the response of the structure with novel inerto-elastic damper, as compared to those of structures with normal elastic spring as well as no dampers. The response quantities of interest, considered for this study are top floor displacement, inter-storey drift and base shear. The study also underlines optimal parameters for the inerter fictive mass and the elastic spring stiffness on the basis of the results obtained.
url https://doi.org/10.1051/matecconf/201821114003
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AT kasararnava seismicvibrationcontrolusinganovelinertoelasticdamper
AT djedouinassim seismicvibrationcontrolusinganovelinertoelasticdamper
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