Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History

The paper presents results of the numerical analysis of the fire damper used in ventilation systems under the earthquake loading. The research was conducted in accordance with the recommendations of the Nuclear Safety Standards Commission. The aim of the analysis was to examine the fire damper with...

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Main Authors: Skibicki Ł Dariusz, Pejkowski Łukasz, Stopel Michał
Format: Article
Language:English
Published: Sciendo 2017-12-01
Series:Polish Maritime Research
Subjects:
Online Access:https://doi.org/10.1515/pomr-2017-0143
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spelling doaj-6942714983b64fec8ac995118604bd942021-09-05T13:59:51ZengSciendoPolish Maritime Research2083-74292017-12-0124411612310.1515/pomr-2017-0143pomr-2017-0143Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-HistorySkibicki Ł Dariusz0Pejkowski Łukasz1Stopel Michał2UTP University of Science and Technology Kaliskiego, 7 85-796 Bydgoszcz, PolandUTP University of Science and Technology Kaliskiego, 7 85-796 Bydgoszcz, PolandUTP University of Science and Technology Kaliskiego, 7 85-796 Bydgoszcz, PolandThe paper presents results of the numerical analysis of the fire damper used in ventilation systems under the earthquake loading. The research was conducted in accordance with the recommendations of the Nuclear Safety Standards Commission. The aim of the analysis was to examine the fire damper with respect to its resistance to service loadings, structural integrity, and capability to stay operative after an earthquake. The analysis was carried out using the Finite Element Method in LS-Dyna software. The earthquake loading was modelled as accelerations, measured in three directions during the earthquake. For modelling of the materials behaviour, material models taking into account the influence of strain rate on hardening were used. The analysis consisted of three stages, which were: loading the construction with the earth gravity, earthquake simulation by loading with accelerations in three directions, and, finally, closing the fire damper. The analysis has shown that some of the construction elements undergo plastic deformations. However, the performed simulation of fire damper closing showed that despite these deformations, the device remains capable to keep its functionality and the damper closes hermetically. The results of the analysis were important design indications for the fire damper prototype.https://doi.org/10.1515/pomr-2017-0143fire barriersearthquakefinite element method
collection DOAJ
language English
format Article
sources DOAJ
author Skibicki Ł Dariusz
Pejkowski Łukasz
Stopel Michał
spellingShingle Skibicki Ł Dariusz
Pejkowski Łukasz
Stopel Michał
Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History
Polish Maritime Research
fire barriers
earthquake
finite element method
author_facet Skibicki Ł Dariusz
Pejkowski Łukasz
Stopel Michał
author_sort Skibicki Ł Dariusz
title Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History
title_short Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History
title_full Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History
title_fullStr Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History
title_full_unstemmed Finite Element Analysis of Ventilation System Fire Damper Dynamic Time-History
title_sort finite element analysis of ventilation system fire damper dynamic time-history
publisher Sciendo
series Polish Maritime Research
issn 2083-7429
publishDate 2017-12-01
description The paper presents results of the numerical analysis of the fire damper used in ventilation systems under the earthquake loading. The research was conducted in accordance with the recommendations of the Nuclear Safety Standards Commission. The aim of the analysis was to examine the fire damper with respect to its resistance to service loadings, structural integrity, and capability to stay operative after an earthquake. The analysis was carried out using the Finite Element Method in LS-Dyna software. The earthquake loading was modelled as accelerations, measured in three directions during the earthquake. For modelling of the materials behaviour, material models taking into account the influence of strain rate on hardening were used. The analysis consisted of three stages, which were: loading the construction with the earth gravity, earthquake simulation by loading with accelerations in three directions, and, finally, closing the fire damper. The analysis has shown that some of the construction elements undergo plastic deformations. However, the performed simulation of fire damper closing showed that despite these deformations, the device remains capable to keep its functionality and the damper closes hermetically. The results of the analysis were important design indications for the fire damper prototype.
topic fire barriers
earthquake
finite element method
url https://doi.org/10.1515/pomr-2017-0143
work_keys_str_mv AT skibickiłdariusz finiteelementanalysisofventilationsystemfiredamperdynamictimehistory
AT pejkowskiłukasz finiteelementanalysisofventilationsystemfiredamperdynamictimehistory
AT stopelmichał finiteelementanalysisofventilationsystemfiredamperdynamictimehistory
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