Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism

The kinematics and rigid- body dynamics theoretically analysis and the ADAMS simulations of the NGW type planet differential mechanism are carried out. The kinematics analysis show the results that the mechanism can realize the velocity synthesis and differential operation with different speed of tw...

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Main Authors: Liu Ting, Cui Peijuan, Wang Chunming, Xiao Chong, Yue Zhenbo, Beijing Research Institute of Precise Mechatronic Controls Equipment
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Transmission 2015-01-01
Series:Jixie chuandong
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Online Access:http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2015.12.023
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author Liu Ting
Cui Peijuan
Wang Chunming
Xiao Chong
Yue Zhenbo
Beijing Research Institute of Precise Mechatronic Controls Equipment
author_facet Liu Ting
Cui Peijuan
Wang Chunming
Xiao Chong
Yue Zhenbo
Beijing Research Institute of Precise Mechatronic Controls Equipment
author_sort Liu Ting
collection DOAJ
description The kinematics and rigid- body dynamics theoretically analysis and the ADAMS simulations of the NGW type planet differential mechanism are carried out. The kinematics analysis show the results that the mechanism can realize the velocity synthesis and differential operation with different speed of two input shafts.Through the rigid- body dynamics analysis,the results as following. Firstly,the relations among the two input angular accelerations,two input torques,the interaction forces between the planet carrier and the planetary gear,the meshing forces at a tangent between gears in case of acceleration and deceleration are derived. Secondly,the relation between the two input axes angular accelerations and two input torques and one load torque is derived. Thirdly,the relation between load torque and the two input torques and two input axes angular accelerations is derived. Fourthly,the force amplitudes between the sun gear and its planetary gears are equal to each other. Fifthly,the force amplitudes between the internal gear ring and its planetary gears are equal to each other. Lastly,the interrelation relationships of the angular accelerations are matched with kinematics relationships.The simulation results by ADAMS are consistent with theoretical consequences. The theoretical analysis is proved to be correct. The results can be applied to performance analysis of the differential mechanism in redundant electromechanical servo actuation systems in case of acceleration and deceleration.
format Article
id doaj-art-c5df053e8a424dec93f731817527295f
institution Kabale University
issn 1004-2539
language zho
publishDate 2015-01-01
publisher Editorial Office of Journal of Mechanical Transmission
record_format Article
series Jixie chuandong
spelling doaj-art-c5df053e8a424dec93f731817527295f2025-01-10T14:03:01ZzhoEditorial Office of Journal of Mechanical TransmissionJixie chuandong1004-25392015-01-013910511029921034Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential MechanismLiu TingCui PeijuanWang ChunmingXiao ChongYue ZhenboBeijing Research Institute of Precise Mechatronic Controls EquipmentThe kinematics and rigid- body dynamics theoretically analysis and the ADAMS simulations of the NGW type planet differential mechanism are carried out. The kinematics analysis show the results that the mechanism can realize the velocity synthesis and differential operation with different speed of two input shafts.Through the rigid- body dynamics analysis,the results as following. Firstly,the relations among the two input angular accelerations,two input torques,the interaction forces between the planet carrier and the planetary gear,the meshing forces at a tangent between gears in case of acceleration and deceleration are derived. Secondly,the relation between the two input axes angular accelerations and two input torques and one load torque is derived. Thirdly,the relation between load torque and the two input torques and two input axes angular accelerations is derived. Fourthly,the force amplitudes between the sun gear and its planetary gears are equal to each other. Fifthly,the force amplitudes between the internal gear ring and its planetary gears are equal to each other. Lastly,the interrelation relationships of the angular accelerations are matched with kinematics relationships.The simulation results by ADAMS are consistent with theoretical consequences. The theoretical analysis is proved to be correct. The results can be applied to performance analysis of the differential mechanism in redundant electromechanical servo actuation systems in case of acceleration and deceleration.http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2015.12.023NGW type planet differential mechanismKinematicsRigid body dynamicsAdams simulation
spellingShingle Liu Ting
Cui Peijuan
Wang Chunming
Xiao Chong
Yue Zhenbo
Beijing Research Institute of Precise Mechatronic Controls Equipment
Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism
Jixie chuandong
NGW type planet differential mechanism
Kinematics
Rigid body dynamics
Adams simulation
title Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism
title_full Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism
title_fullStr Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism
title_full_unstemmed Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism
title_short Kinematics and Dynamics Analysis and Simulation of the NGW Type Differential Mechanism
title_sort kinematics and dynamics analysis and simulation of the ngw type differential mechanism
topic NGW type planet differential mechanism
Kinematics
Rigid body dynamics
Adams simulation
url http://www.jxcd.net.cn/thesisDetails#10.16578/j.issn.1004.2539.2015.12.023
work_keys_str_mv AT liuting kinematicsanddynamicsanalysisandsimulationofthengwtypedifferentialmechanism
AT cuipeijuan kinematicsanddynamicsanalysisandsimulationofthengwtypedifferentialmechanism
AT wangchunming kinematicsanddynamicsanalysisandsimulationofthengwtypedifferentialmechanism
AT xiaochong kinematicsanddynamicsanalysisandsimulationofthengwtypedifferentialmechanism
AT yuezhenbo kinematicsanddynamicsanalysisandsimulationofthengwtypedifferentialmechanism
AT beijingresearchinstituteofprecisemechatroniccontrolsequipment kinematicsanddynamicsanalysisandsimulationofthengwtypedifferentialmechanism