Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration

Taking Liangxiang Pagoda built in Liao Dynasty in Beijing as the research object, the vibration responses of the pagoda in the east-west direction and south-north direction under the action of trains on the Beijing–Guangzhou Railway Line and microseism were tested. On this basis, a numerical model w...

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Main Authors: Qian Xia, Jin Zhao, Defa Wang, Yiqing Li
Format: Article
Language:English
Published: Hindawi Limited 2020-01-01
Series:Advances in Civil Engineering
Online Access:http://dx.doi.org/10.1155/2020/7236310
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spelling doaj-b8cb5ee3f81a4a4c9bb82a65d1b36a472020-11-25T04:01:26ZengHindawi LimitedAdvances in Civil Engineering1687-80861687-80942020-01-01202010.1155/2020/72363107236310Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train VibrationQian Xia0Jin Zhao1Defa Wang2Yiqing Li3School of Civil Engineering and Architecture, Xi’an University of Technology, Xi’an 710048, ChinaSchool of Civil Engineering and Architecture, Xi’an University of Technology, Xi’an 710048, ChinaSchool of Civil Engineering and Architecture, Xi’an University of Technology, Xi’an 710048, ChinaShaanxi JDWG Quality Testing Technology Co., Ltd., Xi’an 710018, ChinaTaking Liangxiang Pagoda built in Liao Dynasty in Beijing as the research object, the vibration responses of the pagoda in the east-west direction and south-north direction under the action of trains on the Beijing–Guangzhou Railway Line and microseism were tested. On this basis, a numerical model was established by using ANSYS to further calculate the dynamic response of the pagoda, and the safety and integrity of the pagoda were evaluated based on existing standards. Cumulative fatigue damage theory was introduced to predict the remaining fatigue life of Liangxiang Pagoda. The following conclusions have been drawn: in the two directions mentioned above, the natural vibration frequencies of the pagoda of the first three orders are similar; the 1st-order vibration modes in the plane are bending, and the vibration modes of the 2nd and 3rd orders are shear-bending; under the action of trains, the peak vibration value of Liangxiang Pagoda at the position that bears the maximum load is 0.053 mm/s, which has a little impact on the safety and integrity of the pagoda; under the combined action of gravity and trains, the remaining fatigue life of Liangxiang Pagoda is 5.26×107 times. The research method used in this paper can provide data and scientific support for the protection of historical buildings, as well as the basis for the follow-up research of the studied ancient pagoda.http://dx.doi.org/10.1155/2020/7236310
collection DOAJ
language English
format Article
sources DOAJ
author Qian Xia
Jin Zhao
Defa Wang
Yiqing Li
spellingShingle Qian Xia
Jin Zhao
Defa Wang
Yiqing Li
Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration
Advances in Civil Engineering
author_facet Qian Xia
Jin Zhao
Defa Wang
Yiqing Li
author_sort Qian Xia
title Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration
title_short Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration
title_full Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration
title_fullStr Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration
title_full_unstemmed Analysis of Dynamic Response and Fatigue Life of Masonry Pagoda under the Influence of Train Vibration
title_sort analysis of dynamic response and fatigue life of masonry pagoda under the influence of train vibration
publisher Hindawi Limited
series Advances in Civil Engineering
issn 1687-8086
1687-8094
publishDate 2020-01-01
description Taking Liangxiang Pagoda built in Liao Dynasty in Beijing as the research object, the vibration responses of the pagoda in the east-west direction and south-north direction under the action of trains on the Beijing–Guangzhou Railway Line and microseism were tested. On this basis, a numerical model was established by using ANSYS to further calculate the dynamic response of the pagoda, and the safety and integrity of the pagoda were evaluated based on existing standards. Cumulative fatigue damage theory was introduced to predict the remaining fatigue life of Liangxiang Pagoda. The following conclusions have been drawn: in the two directions mentioned above, the natural vibration frequencies of the pagoda of the first three orders are similar; the 1st-order vibration modes in the plane are bending, and the vibration modes of the 2nd and 3rd orders are shear-bending; under the action of trains, the peak vibration value of Liangxiang Pagoda at the position that bears the maximum load is 0.053 mm/s, which has a little impact on the safety and integrity of the pagoda; under the combined action of gravity and trains, the remaining fatigue life of Liangxiang Pagoda is 5.26×107 times. The research method used in this paper can provide data and scientific support for the protection of historical buildings, as well as the basis for the follow-up research of the studied ancient pagoda.
url http://dx.doi.org/10.1155/2020/7236310
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AT jinzhao analysisofdynamicresponseandfatiguelifeofmasonrypagodaundertheinfluenceoftrainvibration
AT defawang analysisofdynamicresponseandfatiguelifeofmasonrypagodaundertheinfluenceoftrainvibration
AT yiqingli analysisofdynamicresponseandfatiguelifeofmasonrypagodaundertheinfluenceoftrainvibration
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