Finite element modeling and experimental verification of lightweight steel floor vibration

Due to the lack of design standard and the difficulty of analysis, the floor vibration analysis of lightweight steel floors has received less attention than the analysis of typical floor structures. In this paper, the finite element model for lightweight steel floors is presented utilizing the rigid...

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Main Authors: Je-Woo Park, Tae-Hyu Ha, Hongjin Kim
Format: Article
Language:English
Published: JVE International 2016-05-01
Series:Journal of Vibroengineering
Subjects:
Online Access:https://www.jvejournals.com/article/16754
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spelling doaj-6bdf220153984d909fc4581280ba03452020-11-24T20:52:19ZengJVE InternationalJournal of Vibroengineering1392-87162538-84602016-05-011831435144310.21595/jve.2015.1675416754Finite element modeling and experimental verification of lightweight steel floor vibrationJe-Woo Park0Tae-Hyu Ha1Hongjin Kim2Kyungpook National University, Daegu, KoreaPOSCO, Pohang, KoreaKyungpook National University, Daegu, KoreaDue to the lack of design standard and the difficulty of analysis, the floor vibration analysis of lightweight steel floors has received less attention than the analysis of typical floor structures. In this paper, the finite element model for lightweight steel floors is presented utilizing the rigid link and realistic support restraints. The rigid rink is used to solve the problem of difference in the centroid of beam, joist, and flooring material and to guarantee the same behavior of those members. Two different support restraints, all fixed restraint and mixture of fixed and released restraint, are used in the analysis. The finite element model is verified through the human impact loading test of the full-scale light-weight steel floors that have different joist condition and middle beam. The finite element analysis results indicate that the different joists having same moment of inertia yield similar natural frequencies, while the test results of full-scale floors show that the floor with the closed shaped joists yields higher natural frequency than the floor with open shaped joists. The test results also indicate that the finite element analysis using the mixture of fixed and released support restraint yields closer natural frequencies to those of actual floors.https://www.jvejournals.com/article/16754floor vibrationlightweight steel floorfinite element analysisexperimental verificationnatural frequency
collection DOAJ
language English
format Article
sources DOAJ
author Je-Woo Park
Tae-Hyu Ha
Hongjin Kim
spellingShingle Je-Woo Park
Tae-Hyu Ha
Hongjin Kim
Finite element modeling and experimental verification of lightweight steel floor vibration
Journal of Vibroengineering
floor vibration
lightweight steel floor
finite element analysis
experimental verification
natural frequency
author_facet Je-Woo Park
Tae-Hyu Ha
Hongjin Kim
author_sort Je-Woo Park
title Finite element modeling and experimental verification of lightweight steel floor vibration
title_short Finite element modeling and experimental verification of lightweight steel floor vibration
title_full Finite element modeling and experimental verification of lightweight steel floor vibration
title_fullStr Finite element modeling and experimental verification of lightweight steel floor vibration
title_full_unstemmed Finite element modeling and experimental verification of lightweight steel floor vibration
title_sort finite element modeling and experimental verification of lightweight steel floor vibration
publisher JVE International
series Journal of Vibroengineering
issn 1392-8716
2538-8460
publishDate 2016-05-01
description Due to the lack of design standard and the difficulty of analysis, the floor vibration analysis of lightweight steel floors has received less attention than the analysis of typical floor structures. In this paper, the finite element model for lightweight steel floors is presented utilizing the rigid link and realistic support restraints. The rigid rink is used to solve the problem of difference in the centroid of beam, joist, and flooring material and to guarantee the same behavior of those members. Two different support restraints, all fixed restraint and mixture of fixed and released restraint, are used in the analysis. The finite element model is verified through the human impact loading test of the full-scale light-weight steel floors that have different joist condition and middle beam. The finite element analysis results indicate that the different joists having same moment of inertia yield similar natural frequencies, while the test results of full-scale floors show that the floor with the closed shaped joists yields higher natural frequency than the floor with open shaped joists. The test results also indicate that the finite element analysis using the mixture of fixed and released support restraint yields closer natural frequencies to those of actual floors.
topic floor vibration
lightweight steel floor
finite element analysis
experimental verification
natural frequency
url https://www.jvejournals.com/article/16754
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AT taehyuha finiteelementmodelingandexperimentalverificationoflightweightsteelfloorvibration
AT hongjinkim finiteelementmodelingandexperimentalverificationoflightweightsteelfloorvibration
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