Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential

In order to study the mode switching and fault reconfiguration of the 10 kW dual redundancy electromechanical servo system driven by differential when one channel fault occurs, through simulation analysis, the system parameters of transient response and frequency characteristic under the active- act...

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Main Authors: Ting Liu, Guoping Zhao, Yufeng He, Zhiyuan Yu, Yuping Huang
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Transmission 2022-01-01
Series:Jixie chuandong
Subjects:
Online Access:http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2022.02.023
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author Ting Liu
Guoping Zhao
Yufeng He
Zhiyuan Yu
Yuping Huang
author_facet Ting Liu
Guoping Zhao
Yufeng He
Zhiyuan Yu
Yuping Huang
author_sort Ting Liu
collection DOAJ
description In order to study the mode switching and fault reconfiguration of the 10 kW dual redundancy electromechanical servo system driven by differential when one channel fault occurs, through simulation analysis, the system parameters of transient response and frequency characteristic under the active- active working mode are compared with those under the active-standby working mode. The sinusoidal switching process of the active-active switching and active-standby switching are analyzed. The sinusoidal variation curves of the active-active switching mode and the active-standby switching mode are carried out by the test rig. Simulation comparison shows that, comparison with the active-standby working mode, it is found that the active-active working mode possesses better parameters of transient response and frequency characteristic. Consistent with simulation, the test shows that the switching time and oscillation process of switching at the zero point are longer and non-smoother than those of switching at the maximum displacement point. For the 10 kW electromechanical servo system with only internal friction and inertia load, either switching mode can be switched reliably.
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spelling doaj.art-dfea534863914af3a2325fa8b4cb7d8c2023-05-26T09:51:48ZzhoEditorial Office of Journal of Mechanical TransmissionJixie chuandong1004-25392022-01-014614114830482510Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by DifferentialTing LiuGuoping ZhaoYufeng HeZhiyuan YuYuping HuangIn order to study the mode switching and fault reconfiguration of the 10 kW dual redundancy electromechanical servo system driven by differential when one channel fault occurs, through simulation analysis, the system parameters of transient response and frequency characteristic under the active- active working mode are compared with those under the active-standby working mode. The sinusoidal switching process of the active-active switching and active-standby switching are analyzed. The sinusoidal variation curves of the active-active switching mode and the active-standby switching mode are carried out by the test rig. Simulation comparison shows that, comparison with the active-standby working mode, it is found that the active-active working mode possesses better parameters of transient response and frequency characteristic. Consistent with simulation, the test shows that the switching time and oscillation process of switching at the zero point are longer and non-smoother than those of switching at the maximum displacement point. For the 10 kW electromechanical servo system with only internal friction and inertia load, either switching mode can be switched reliably.http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2022.02.023Dual redundancy electromechanical servo system;Mode switching;Fault reconfiguration;Inertia and friction loadInertia and friction load
spellingShingle Ting Liu
Guoping Zhao
Yufeng He
Zhiyuan Yu
Yuping Huang
Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential
Jixie chuandong
Dual redundancy electromechanical servo system;Mode switching;Fault reconfiguration;Inertia and friction loadInertia and friction load
title Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential
title_full Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential
title_fullStr Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential
title_full_unstemmed Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential
title_short Mode Switching Research of Dual Redundant Electromechanical Servo System Driven by Differential
title_sort mode switching research of dual redundant electromechanical servo system driven by differential
topic Dual redundancy electromechanical servo system;Mode switching;Fault reconfiguration;Inertia and friction loadInertia and friction load
url http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2022.02.023
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AT guopingzhao modeswitchingresearchofdualredundantelectromechanicalservosystemdrivenbydifferential
AT yufenghe modeswitchingresearchofdualredundantelectromechanicalservosystemdrivenbydifferential
AT zhiyuanyu modeswitchingresearchofdualredundantelectromechanicalservosystemdrivenbydifferential
AT yupinghuang modeswitchingresearchofdualredundantelectromechanicalservosystemdrivenbydifferential