ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch

There are various uncertain factors such as parameter perturbation and external disturbance during the steering process of a permanent magnet slip clutch electronically controlled hydraulic power steering system (P-ECHPS) of medium and heavy duty vehicles, which is an electronically controlled hydra...

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Main Authors: Guoqing Geng, Qingyuan Shen, Haobin Jiang
Format: Article
Language:English
Published: MDPI AG 2019-05-01
Series:Energies
Subjects:
Online Access:https://www.mdpi.com/1996-1073/12/9/1739
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spelling doaj-2f05798bf1a7427cb2d625ab1d2bd3c22020-11-25T01:23:18ZengMDPI AGEnergies1996-10732019-05-01129173910.3390/en12091739en12091739ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip ClutchGuoqing Geng0Qingyuan Shen1Haobin Jiang2Department of Vehicle Engineering, Jiangsu University, Zhenjiang 212013, ChinaDepartment of Vehicle Engineering, Jiangsu University, Zhenjiang 212013, ChinaDepartment of Vehicle Engineering, Jiangsu University, Zhenjiang 212013, ChinaThere are various uncertain factors such as parameter perturbation and external disturbance during the steering process of a permanent magnet slip clutch electronically controlled hydraulic power steering system (P-ECHPS) of medium and heavy duty vehicles, which is an electronically controlled hydraulic power steering system based on a permanent magnetic slip clutch (PMSC). In order to avoid the immutable single assistance characteristic of a hydraulic power steering system, a PMSC speed-controlled model and P-ECHPS of each subsystem model were studied. Combined with non-singular terminal sliding mode and fast terminal sliding mode, an Adaptive Non-singular Fast Terminal Sliding (ANFTS) mode control strategy was proposed to control precisely the rotor speed of the PMSC in P-ECHPS, thus achieving better power control for the entire P-ECHPS system. The simulation results show that adaptive nonsingular fast terminal sliding mode control enables PMSC output speed to track the target speed. Compared with the non-singular terminal sliding mode control and the ordinary sliding mode control, the convergence speed has been improved by 66.7% and 84.2%, respectively. The rapid control prototype test of PMSC based on dSPACE (dSPACE is a development and verification platform based on MATLAB/Simulink software.) was carried out. The validity of the adaptive NFTSM algorithm and the correctness of the offline simulation results are validated. The adaptive NFTSM algorithm have better robustness and can realize variable assist characteristics and save energy.https://www.mdpi.com/1996-1073/12/9/1739steering systempermanent magnet slip clutchspeed regulation modeladaptive non-singular fast terminal sliding modeconvergence speedrapid control prototype
collection DOAJ
language English
format Article
sources DOAJ
author Guoqing Geng
Qingyuan Shen
Haobin Jiang
spellingShingle Guoqing Geng
Qingyuan Shen
Haobin Jiang
ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch
Energies
steering system
permanent magnet slip clutch
speed regulation model
adaptive non-singular fast terminal sliding mode
convergence speed
rapid control prototype
author_facet Guoqing Geng
Qingyuan Shen
Haobin Jiang
author_sort Guoqing Geng
title ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch
title_short ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch
title_full ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch
title_fullStr ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch
title_full_unstemmed ANFTS Mode Control for an Electronically Controlled Hydraulic Power Steering System on a Permanent Magnet Slip Clutch
title_sort anfts mode control for an electronically controlled hydraulic power steering system on a permanent magnet slip clutch
publisher MDPI AG
series Energies
issn 1996-1073
publishDate 2019-05-01
description There are various uncertain factors such as parameter perturbation and external disturbance during the steering process of a permanent magnet slip clutch electronically controlled hydraulic power steering system (P-ECHPS) of medium and heavy duty vehicles, which is an electronically controlled hydraulic power steering system based on a permanent magnetic slip clutch (PMSC). In order to avoid the immutable single assistance characteristic of a hydraulic power steering system, a PMSC speed-controlled model and P-ECHPS of each subsystem model were studied. Combined with non-singular terminal sliding mode and fast terminal sliding mode, an Adaptive Non-singular Fast Terminal Sliding (ANFTS) mode control strategy was proposed to control precisely the rotor speed of the PMSC in P-ECHPS, thus achieving better power control for the entire P-ECHPS system. The simulation results show that adaptive nonsingular fast terminal sliding mode control enables PMSC output speed to track the target speed. Compared with the non-singular terminal sliding mode control and the ordinary sliding mode control, the convergence speed has been improved by 66.7% and 84.2%, respectively. The rapid control prototype test of PMSC based on dSPACE (dSPACE is a development and verification platform based on MATLAB/Simulink software.) was carried out. The validity of the adaptive NFTSM algorithm and the correctness of the offline simulation results are validated. The adaptive NFTSM algorithm have better robustness and can realize variable assist characteristics and save energy.
topic steering system
permanent magnet slip clutch
speed regulation model
adaptive non-singular fast terminal sliding mode
convergence speed
rapid control prototype
url https://www.mdpi.com/1996-1073/12/9/1739
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AT qingyuanshen anftsmodecontrolforanelectronicallycontrolledhydraulicpowersteeringsystemonapermanentmagnetslipclutch
AT haobinjiang anftsmodecontrolforanelectronicallycontrolledhydraulicpowersteeringsystemonapermanentmagnetslipclutch
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