Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test

The numerical tools can be used to facilitate the design of the railway pantograph-catenary system. The validation of the current numerical results is mostly performed at a speed slower than 350 km/h. This paper aims at the validation and analysis of the numerical results at a super-high-speed. The...

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Main Authors: Jia Yang, Yang Song, Xiaobing Lu, Fuchuan Duan, Zhigang Liu, Ke Chen
Format: Article
Language:English
Published: Hindawi Limited 2021-01-01
Series:Shock and Vibration
Online Access:http://dx.doi.org/10.1155/2021/9922404
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spelling doaj-2809dcf8a25a4faebdaf7acd627577b12021-08-30T00:01:21ZengHindawi LimitedShock and Vibration1875-92032021-01-01202110.1155/2021/9922404Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental TestJia Yang0Yang Song1Xiaobing Lu2Fuchuan Duan3Zhigang Liu4Ke Chen5National Rail Transit Electrification and Automation Engineering Technique Research CentreDepartment of Structural EngineeringChina Railway Eryuan Engineering Group CO. LTD.,National Rail Transit Electrification and Automation Engineering Technique Research CentreNational Rail Transit Electrification and Automation Engineering Technique Research CentreChina Railway Eryuan Engineering Group CO. LTD.,The numerical tools can be used to facilitate the design of the railway pantograph-catenary system. The validation of the current numerical results is mostly performed at a speed slower than 350 km/h. This paper aims at the validation and analysis of the numerical results at a super-high-speed. The catenary model is constructed based on a nonlinear finite element approach employing the absolute nodal coordinate formulation. A multibody dynamics model is adopted to represent the pantograph. The measurement data are collected by an inspection vehicle equipped with an instrumented pantograph operating at 378 km/h in Chengdu-Chongqing high-speed line. Comparing the numerical simulation and the field test shows that the present pantograph-catenary model can provide reliable numerical results at 378 km/h. The numerical analysis of pantograph-catenary interaction at super-high-speed shows that the trailing pantograph performance does not comply with the assessment standard at 378 km/h. The adjustment of double-pantograph interval and messenger wire tension can effectively improve the trailing pantograph performance.http://dx.doi.org/10.1155/2021/9922404
collection DOAJ
language English
format Article
sources DOAJ
author Jia Yang
Yang Song
Xiaobing Lu
Fuchuan Duan
Zhigang Liu
Ke Chen
spellingShingle Jia Yang
Yang Song
Xiaobing Lu
Fuchuan Duan
Zhigang Liu
Ke Chen
Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test
Shock and Vibration
author_facet Jia Yang
Yang Song
Xiaobing Lu
Fuchuan Duan
Zhigang Liu
Ke Chen
author_sort Jia Yang
title Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test
title_short Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test
title_full Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test
title_fullStr Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test
title_full_unstemmed Validation and Analysis on Numerical Response of Super-High-Speed Railway Pantograph-Catenary Interaction Based on Experimental Test
title_sort validation and analysis on numerical response of super-high-speed railway pantograph-catenary interaction based on experimental test
publisher Hindawi Limited
series Shock and Vibration
issn 1875-9203
publishDate 2021-01-01
description The numerical tools can be used to facilitate the design of the railway pantograph-catenary system. The validation of the current numerical results is mostly performed at a speed slower than 350 km/h. This paper aims at the validation and analysis of the numerical results at a super-high-speed. The catenary model is constructed based on a nonlinear finite element approach employing the absolute nodal coordinate formulation. A multibody dynamics model is adopted to represent the pantograph. The measurement data are collected by an inspection vehicle equipped with an instrumented pantograph operating at 378 km/h in Chengdu-Chongqing high-speed line. Comparing the numerical simulation and the field test shows that the present pantograph-catenary model can provide reliable numerical results at 378 km/h. The numerical analysis of pantograph-catenary interaction at super-high-speed shows that the trailing pantograph performance does not comply with the assessment standard at 378 km/h. The adjustment of double-pantograph interval and messenger wire tension can effectively improve the trailing pantograph performance.
url http://dx.doi.org/10.1155/2021/9922404
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AT xiaobinglu validationandanalysisonnumericalresponseofsuperhighspeedrailwaypantographcatenaryinteractionbasedonexperimentaltest
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AT kechen validationandanalysisonnumericalresponseofsuperhighspeedrailwaypantographcatenaryinteractionbasedonexperimentaltest
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