Adaptive Sliding Mode Controller for Course Keeping of Unmanned Surface Vehicle

L. Wan, Yan Chen, Yang Zhou
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Abstract

A course keeping controller for unmanned surface vehicle (USV) is proposed in this paper. The USV is a very complicated, nonlinear and uncertain system. Considering that the parameters of the USV are time-varying. They vary with the condition of the ship and the varying navigation environment. An adaptive course keeping controller combines sliding mode technology and radial basis function neural network is developed. It has strong robustness. The radial basis function neural network is used for realizing the adaptive approximation of the nonlinear and uncertain part, and the sliding mode control is combined to realize the tracking of the desired heading angle. The adaptive laws of the neural network weights are derived by Lyapunov stability theorem, so as to guarantee the stability and convergence of the whole closed-loop system. The simulations are given to validate that the designed controller can make the course keeping accurately and quickly.
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无人水面航行器航向保持的自适应滑模控制
提出了一种无人水面飞行器航向保持控制器。无人潜航器是一个非常复杂的非线性不确定系统。考虑到无人潜航器的参数是时变的。它们随船舶状况和航行环境的变化而变化。提出了一种结合滑模技术和径向基函数神经网络的自适应航向保持控制器。具有很强的鲁棒性。采用径向基函数神经网络实现对非线性和不确定部分的自适应逼近,并结合滑模控制实现对理想航向角的跟踪。利用Lyapunov稳定性定理推导出神经网络权值的自适应规律,以保证整个闭环系统的稳定性和收敛性。仿真结果表明,所设计的控制器能够准确、快速地保持航迹。
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