DocumentCode
1815772
Title
Adaptive synchronous artificial neural network based PI-type sliding mode control on two robot manipulators
Author
Esmaili, Parvaneh ; Haron, Habibollah
Author_Institution
Dept. of Comput. Sci., Univ. Teknol. Malaysia, Skudai, Malaysia
fYear
2015
fDate
21-23 April 2015
Firstpage
515
Lastpage
519
Abstract
An adaptive synchronous proportional-integral (PI)-type sliding mode control is developed for two cooperative robot manipulators handling a lightweight beam. This approach is under implicit communication between robots in which each robot manipulator does not need to have any information about the other. A class of sliding mode control which is insensitive and robust in the presence of the uncertainties and external disturbances with no chattering is applied. In the sliding mode control investigating PI sliding surface guarantee the asymptotic stability in compare with the classic sliding mode control. A feed forward neural network is applied to compensate dynamic model uncertainty. The adaptive synchronization method is presented to solve the parameter uncertainty in the trajectory of each robot manipulator with respect to the reference to handle the object accurately and smoothly in the desired trajectory. The stability analysis of the proposed scheme is guaranteed by Lyapunov method. In the simulation results, the convergence of trajectory tracking error and synchronization error to zero is reveal the performance of proposed scheme.
Keywords
Lyapunov methods; PI control; adaptive control; asymptotic stability; compensation; feedforward neural nets; manipulators; neurocontrollers; synchronisation; uncertain systems; variable structure systems; Lyapunov method; adaptive synchronization method; adaptive synchronous PI-type sliding mode control; adaptive synchronous artificial neural network; adaptive synchronous proportional-integral type sliding mode control; asymptotic stability; cooperative robot manipulators; dynamic model uncertainty compensation; feed forward neural network; lightweight beam; parameter uncertainty; stability analysis; synchronization error; trajectory tracking error; Manipulator dynamics; Robot kinematics; Sliding mode control; Synchronization; Uncertainty; Adaptive synchronization; PI-type sliding mode control; cooperative multi robot manipulators; implicit communication;
fLanguage
English
Publisher
ieee
Conference_Titel
Computer, Communications, and Control Technology (I4CT), 2015 International Conference on
Conference_Location
Kuching
Type
conf
DOI
10.1109/I4CT.2015.7219632
Filename
7219632
Link To Document