Adaptive Sliding-mode Control Based On Decoupled Method for A Class of Underactuated System
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摘要
An adaptive radial basis function neural network(RBFNN) sliding-mode controller with decoupled method was proposed for a class of underactuated system. Different sub-systems were devided according to the performance of the system, and the corresponding sub-sliding plane was designed for the sub-system; The RBFNN controller was designed for one of the sub-system, and its adaptive algorithm was derived by the reaching conditon, the sub-sliding planes were connected by the intermediate functions, the stability of the control system can be guaranteed when one of the sub-system was stable. At last, overhead crane transporting control was used to illustrate the rapidness and robustness of the proposed approach.
An adaptive radial basis function neural network(RBFNN) sliding-mode controller with decoupled method was proposed for a class of underactuated system. Different sub-systems were devided according to the performance of the system, and the corresponding sub-sliding plane was designed for the sub-system; The RBFNN controller was designed for one of the sub-system, and its adaptive algorithm was derived by the reaching conditon, the sub-sliding planes were connected by the intermediate functions, the stability of the control system can be guaranteed when one of the sub-system was stable. At last, overhead crane transporting control was used to illustrate the rapidness and robustness of the proposed approach.
引文
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