International Journal of Control, Automation and Systems 2022; 20(12): 4037-4049
Published online December 10, 2022
https://doi.org/10.1007/s12555-021-0433-1
© The International Journal of Control, Automation, and Systems
This paper tackles the tracking control problem for a class of uncertain switching nonlinear systems with periodically time-varying parameters. To handle the unknown nonlinear functions and periodically time-varying parameters simultaneously, the radial basis function neural networks and Fourier series expansion are combined together. At the same time, the command filter approach is utilized to eliminate the “explosion of complexity” problem of the traditional backstepping technique and relax the assumption on the reference signal as well. Compared with the previous results, the filter errors are compensated by introducing the compensated signals and the upper bounds of the approximation errors are estimated as well. A compound adaptive neural network control strategy is proposed to warrant that the closed-loop system is semi-globally ultimately uniformly bounded. Two examples are provided to demonstrate the effectiveness of the reported approach.
Keywords Command filter, Fourier series expansion, neural network, nonlinear switching system, periodically time-varying parameters.
International Journal of Control, Automation and Systems 2022; 20(12): 4037-4049
Published online December 1, 2022 https://doi.org/10.1007/s12555-021-0433-1
Copyright © The International Journal of Control, Automation, and Systems.
Xiaoli Yang, Jing Li*, Jian Wu, and Xiaobo Li
Xidian University
This paper tackles the tracking control problem for a class of uncertain switching nonlinear systems with periodically time-varying parameters. To handle the unknown nonlinear functions and periodically time-varying parameters simultaneously, the radial basis function neural networks and Fourier series expansion are combined together. At the same time, the command filter approach is utilized to eliminate the “explosion of complexity” problem of the traditional backstepping technique and relax the assumption on the reference signal as well. Compared with the previous results, the filter errors are compensated by introducing the compensated signals and the upper bounds of the approximation errors are estimated as well. A compound adaptive neural network control strategy is proposed to warrant that the closed-loop system is semi-globally ultimately uniformly bounded. Two examples are provided to demonstrate the effectiveness of the reported approach.
Keywords: Command filter, Fourier series expansion, neural network, nonlinear switching system, periodically time-varying parameters.
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