Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit

Abstract When driving a 32‐m long multi‐set rubber‐tire transit in a manual driving mode, it is easy for the driver to feel tired due to the massive concentration, and it is hard to manually operate in a narrow and twist gauge. The authors introduce a six‐axle coordinated automatic all‐wheel steerin...

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Main Authors: Jianghua Feng, Yunqing Hu, Xiwen Yuan, Ruipeng Huang, Xinrui Zhang, Lei Xiao
Format: Article
Language:English
Published: Wiley 2021-09-01
Series:IET Electrical Systems in Transportation
Online Access:https://doi.org/10.1049/els2.12023
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author Jianghua Feng
Yunqing Hu
Xiwen Yuan
Ruipeng Huang
Xinrui Zhang
Lei Xiao
author_facet Jianghua Feng
Yunqing Hu
Xiwen Yuan
Ruipeng Huang
Xinrui Zhang
Lei Xiao
author_sort Jianghua Feng
collection DOAJ
description Abstract When driving a 32‐m long multi‐set rubber‐tire transit in a manual driving mode, it is easy for the driver to feel tired due to the massive concentration, and it is hard to manually operate in a narrow and twist gauge. The authors introduce a six‐axle coordinated automatic all‐wheel steering control system and its design method is based on the visual perception and the geometric relationship. First, the functions of the two subsystems of the full‐axle automatic steering control system are introduced. One subsystem is a path tracking control system and the other subsystem is a trajectory following the control system. Secondly, the theoretical principles of the two control systems are introduced in detail. Then, the controller design method of the two subsystems is introduced. Finally, the simulation results of Trucksim and MATLAB/Simulink are compared with the actual vehicle test data to test the controller’s perception and the follow‐up control effect. It can be concluded that the gap between the platform and the train is kept between a relatively 10∼20 cm narrow when the train pulls in and out of the station. When the train runs at a high speed, it is stabilised at 72 km/h, and the lateral deviation from the virtual track centreline is controlled within ±15 cm.
format Article
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institution Kabale University
issn 2042-9738
2042-9746
language English
publishDate 2021-09-01
publisher Wiley
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series IET Electrical Systems in Transportation
spelling doaj-art-f64baf6e073a445fba4f301886ebf0ce2025-02-03T01:29:40ZengWileyIET Electrical Systems in Transportation2042-97382042-97462021-09-0111322724010.1049/els2.12023Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transitJianghua Feng0Yunqing Hu1Xiwen Yuan2Ruipeng Huang3Xinrui Zhang4Lei Xiao5CRRC Zhuzhou Institute Co. Ltd Zhuzhou ChinaCRRC Zhuzhou Institute Co. Ltd Zhuzhou ChinaCRRC Zhuzhou Institute Co. Ltd Zhuzhou ChinaCRRC Zhuzhou Institute Co. Ltd Zhuzhou ChinaCRRC Zhuzhou Institute Co. Ltd Zhuzhou ChinaCRRC Zhuzhou Institute Co. Ltd Zhuzhou ChinaAbstract When driving a 32‐m long multi‐set rubber‐tire transit in a manual driving mode, it is easy for the driver to feel tired due to the massive concentration, and it is hard to manually operate in a narrow and twist gauge. The authors introduce a six‐axle coordinated automatic all‐wheel steering control system and its design method is based on the visual perception and the geometric relationship. First, the functions of the two subsystems of the full‐axle automatic steering control system are introduced. One subsystem is a path tracking control system and the other subsystem is a trajectory following the control system. Secondly, the theoretical principles of the two control systems are introduced in detail. Then, the controller design method of the two subsystems is introduced. Finally, the simulation results of Trucksim and MATLAB/Simulink are compared with the actual vehicle test data to test the controller’s perception and the follow‐up control effect. It can be concluded that the gap between the platform and the train is kept between a relatively 10∼20 cm narrow when the train pulls in and out of the station. When the train runs at a high speed, it is stabilised at 72 km/h, and the lateral deviation from the virtual track centreline is controlled within ±15 cm.https://doi.org/10.1049/els2.12023
spellingShingle Jianghua Feng
Yunqing Hu
Xiwen Yuan
Ruipeng Huang
Xinrui Zhang
Lei Xiao
Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit
IET Electrical Systems in Transportation
title Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit
title_full Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit
title_fullStr Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit
title_full_unstemmed Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit
title_short Development and validation of an automatic all‐wheel steering system for multiple‐articulated rubber‐tire transit
title_sort development and validation of an automatic all wheel steering system for multiple articulated rubber tire transit
url https://doi.org/10.1049/els2.12023
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