Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring

In this paper, we investigate vehicle–bridge interactions and propose a new method for assessing bridge conditions based on nonlinear vibration analysis. A vehicle model is presented, and the dynamic load on the bridge is quantified based on bridge road roughness. The vibration of a river bridge und...

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Main Authors: Dejian Meng, Feng Xiao, Lijun Zhang, Xiaotian Xu, Gang S Chen, Wael Zatar, J Leroy Hulsey
Format: Article
Language:English
Published: SAGE Publishing 2019-12-01
Series:Journal of Low Frequency Noise, Vibration and Active Control
Online Access:https://doi.org/10.1177/1461348418811703
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spelling doaj-5d3201a959de44d396ea1d05df29f7bc2020-11-25T03:49:26ZengSAGE PublishingJournal of Low Frequency Noise, Vibration and Active Control1461-34842048-40462019-12-013810.1177/1461348418811703Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoringDejian MengFeng XiaoLijun ZhangXiaotian XuGang S ChenWael ZatarJ Leroy HulseyIn this paper, we investigate vehicle–bridge interactions and propose a new method for assessing bridge conditions based on nonlinear vibration analysis. A vehicle model is presented, and the dynamic load on the bridge is quantified based on bridge road roughness. The vibration of a river bridge under a moving vehicle is recorded and analyzed. The Fourier spectrum of the bridge response due to vehicle loading exhibits complicated cluster bands in addition to multiple peaks, some of which are correlated with the bridge natural modes characterized by finite element method analysis and free decay testing, and some of which are correlated with the vehicle dynamic load spectrum. To characterize the unidentified narrow band in the bridge response spectrum, the Lyapunov exponent of the response is estimated, which is found to be a positive value indicating the nonlinear properties of the bridge’s large response under vehicle loading. This finding correlates with the bridge inspection, which shows that some supporting roller bearings do not properly contact the superstructure of the bridge. To elaborate this phenomenon, a model of beam with nonideal supporting condition is analyzed, and a narrow band spectrum is characterized using He’s variational-iteration method. This research offers insight to using the vehicle–bridge interaction to monitor the health status of a bridge by using nonlinear properties, as well as linear properties.https://doi.org/10.1177/1461348418811703
collection DOAJ
language English
format Article
sources DOAJ
author Dejian Meng
Feng Xiao
Lijun Zhang
Xiaotian Xu
Gang S Chen
Wael Zatar
J Leroy Hulsey
spellingShingle Dejian Meng
Feng Xiao
Lijun Zhang
Xiaotian Xu
Gang S Chen
Wael Zatar
J Leroy Hulsey
Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
Journal of Low Frequency Noise, Vibration and Active Control
author_facet Dejian Meng
Feng Xiao
Lijun Zhang
Xiaotian Xu
Gang S Chen
Wael Zatar
J Leroy Hulsey
author_sort Dejian Meng
title Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
title_short Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
title_full Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
title_fullStr Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
title_full_unstemmed Nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
title_sort nonlinear vibration analysis of vehicle–bridge interaction for condition monitoring
publisher SAGE Publishing
series Journal of Low Frequency Noise, Vibration and Active Control
issn 1461-3484
2048-4046
publishDate 2019-12-01
description In this paper, we investigate vehicle–bridge interactions and propose a new method for assessing bridge conditions based on nonlinear vibration analysis. A vehicle model is presented, and the dynamic load on the bridge is quantified based on bridge road roughness. The vibration of a river bridge under a moving vehicle is recorded and analyzed. The Fourier spectrum of the bridge response due to vehicle loading exhibits complicated cluster bands in addition to multiple peaks, some of which are correlated with the bridge natural modes characterized by finite element method analysis and free decay testing, and some of which are correlated with the vehicle dynamic load spectrum. To characterize the unidentified narrow band in the bridge response spectrum, the Lyapunov exponent of the response is estimated, which is found to be a positive value indicating the nonlinear properties of the bridge’s large response under vehicle loading. This finding correlates with the bridge inspection, which shows that some supporting roller bearings do not properly contact the superstructure of the bridge. To elaborate this phenomenon, a model of beam with nonideal supporting condition is analyzed, and a narrow band spectrum is characterized using He’s variational-iteration method. This research offers insight to using the vehicle–bridge interaction to monitor the health status of a bridge by using nonlinear properties, as well as linear properties.
url https://doi.org/10.1177/1461348418811703
work_keys_str_mv AT dejianmeng nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
AT fengxiao nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
AT lijunzhang nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
AT xiaotianxu nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
AT gangschen nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
AT waelzatar nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
AT jleroyhulsey nonlinearvibrationanalysisofvehiclebridgeinteractionforconditionmonitoring
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