Development and validation of a model for predicting wheel wear in high-speed trains

In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four modules: a multi-body model implemented with the commercial multi-body software SIMPACK to evaluate the dynamic response of the vehicle and t...

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Published inJournal of Zhejiang University. A. Science Vol. 18; no. 8; pp. 603 - 616
Main Authors Tao, Gong-quan, Du, Xing, Zhang, He-ji, Wen, Ze-feng, Jin, Xue-song, Cui, Da-bin
Format Journal Article
LanguageEnglish
Published Hangzhou Zhejiang University Press 01.08.2017
Springer Nature B.V
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Online AccessGet full text
ISSN1673-565X
1862-1775
DOI10.1631/jzus.A1600693

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Abstract In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four modules: a multi-body model implemented with the commercial multi-body software SIMPACK to evaluate the dynamic response of the vehicle and track; a local contact model based on Hertzian theory and a novel method, named FaStrip (Sichani et al., 2016), to calculate the normal and tangential forces, respectively; a wear model proposed by the University of Sheffield (known as the USFD wear function) to estimate the amount of material removed and its distribution along the wheel profile; and a smoothing and updating strategy. A simulation of the wheel wear of the high-speed train CRH3 in service on the Wuhan-Guangzhou railway line was performed. A virtual railway line based on the statistics of the line was used to represent the entire real track. The model was validated using the wheel wear data of the CRH3 operating on the Wuhan- Guangzhou line, monitored by the authors' research group. The results of the predictions and measurements were in good agreement.
AbstractList In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four modules: a multi-body model implemented with the commercial multi-body software SIMPACK to evaluate the dynamic response of the vehicle and track; a local contact model based on Hertzian theory and a novel method, named FaStrip (Sichani et al., 2016), to calculate the normal and tangential forces, respectively; a wear model proposed by the University of Sheffield (known as the USFD wear function) to estimate the amount of material removed and its distribution along the wheel profile; and a smoothing and updating strategy. A simulation of the wheel wear of the high-speed train CRH3 in service on the Wuhan-Guangzhou railway line was performed. A virtual railway line based on the statistics of the line was used to represent the entire real track. The model was validated using the wheel wear data of the CRH3 operating on the Wuhan- Guangzhou line, monitored by the authors' research group. The results of the predictions and measurements were in good agreement.
In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four modules: a multi-body model implemented with the commercial multi-body software SIMPACK to evaluate the dynamic response of the vehicle and track; a local contact model based on Hertzian theory and a novel method, named FaStrip (Sichani et al. , 2016), to calculate the normal and tangential forces, respectively; a wear model proposed by the University of Sheffield (known as the USFD wear function) to estimate the amount of material removed and its distribution along the wheel profile; and a smoothing and updating strategy. A simulation of the wheel wear of the high-speed train CRH3 in service on the Wuhan-Guangzhou railway line was performed. A virtual railway line based on the statistics of the line was used to represent the entire real track. The model was validated using the wheel wear data of the CRH3 operating on the Wuhan- Guangzhou line, monitored by the authors’ research group. The results of the predictions and measurements were in good agreement.
In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four modules: a multi-body model implemented with the commercial multi-body software SIMPACK to evaluate the dynamic response of the vehicle and track; a local contact model based on Hertzian theory and a novel method, named FaStrip (Sichani et al., 2016), to calculate the normal and tangential forces, respectively; a wear model proposed by the University of Sheffield (known as the USFD wear function) to estimate the amount of material removed and its distribution along the wheel profile; and a smoothing and updating strategy. A simulation of the wheel wear of the high-speed train CRH3 in service on the Wuhan-Guangzhou railway line was performed. A virtual railway line based on the statistics of the line was used to represent the entire real track. The model was validated using the wheel wear data of the CRH3 operating on the Wuhan- Guangzhou line, monitored by the authors’ research group. The results of the predictions and measurements were in good agreement.
Author Gong-quan TAO Xing DU He-ji ZHANG Ze-feng WEN Xue-song JIN Da-bin CUI
AuthorAffiliation State Key Laboratory of Traction Power, Southwest Jiaotong University, Chengdu 610031, China Department of Mechanical Engineering, Emei Campus of Southwest Jiaotong University, Emei 614202, China
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DocumentTitleAlternate Development and validation of a model for predicting wheel wear in high-speed trains
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Issue 8
Keywords 轮轨接触
车轮磨耗预测
TH161.12
High-speed train
Wheel/Rail contact
车轮型面
高速列车
Wheel profile
Wheel wear prediction
Language English
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Notes In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four modules: a multi-body model implemented with the commercial multi-body software SIMPACK to evaluate the dynamic response of the vehicle and track; a local contact model based on Hertzian theory and a novel method, named FaStrip (Sichani et al., 2016), to calculate the normal and tangential forces, respectively; a wear model proposed by the University of Sheffield (known as the USFD wear function) to estimate the amount of material removed and its distribution along the wheel profile; and a smoothing and updating strategy. A simulation of the wheel wear of the high-speed train CRH3 in service on the Wuhan-Guangzhou railway line was performed. A virtual railway line based on the statistics of the line was used to represent the entire real track. The model was validated using the wheel wear data of the CRH3 operating on the Wuhan- Guangzhou line, monitored by the authors' research group. The results of the predictions and measurements were in good agreement.
High-speed train; Wheel profile; Wheel/Rail contact; Wheel wear prediction
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PublicationTitle Journal of Zhejiang University. A. Science
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Springer Nature B.V
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Snippet In this paper, we present a comprehensive model for the prediction of the evolution of high-speed train wheel profiles due to wear. The model consists of four...
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SubjectTerms Civil Engineering
Classical and Continuum Physics
Computer simulation
Dynamic response
Engineering
High speed rail
Industrial Chemistry/Chemical Engineering
Locomotives
Mathematical models
Mechanical Engineering
Modules
Multibody systems
Predictions
Railroad transportation
Railroad wheels
Railroads
Smoothing
Trains
Wear
Title Development and validation of a model for predicting wheel wear in high-speed trains
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https://link.springer.com/article/10.1631/jzus.A1600693
https://www.proquest.com/docview/1929835817
Volume 18
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