基于RBF-NN逼近器的欠驱动移动机器人协同控制

Zhenning Yu, S. Wong
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引用次数: 1

摘要

欠驱动系统的自适应控制由于其动力学模型的局限性和参数的非线性未知而成为一个难题。基于两主动轮移动机器人的运动学和动力学模型,在控制系统中嵌入径向基函数神经网络(RBFnn)来逼近未知项。在数学方面,控制算法基于李雅普诺夫直接理论和反演方法,解决了状态(位置、方向、速度等)误差、有界性和收敛性问题。控制器包括以下几个方面:1。驾驶机器人状态接近预定位置,2。2 .利用饱和避免阶跃信号干扰;用RBF神经网络逼近未建模的动态项。此外,设计了一种协作控制方法,以保证多个机器人在特定的队列中运行。仿真结果表明,在建模误差较大的情况下,该系统是稳定合理的。
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Cooperation Control of Under-actuated Mobile Robots with RBF-NN Approximator
The underactuated system adaptive control is a tough problem since its dynamic model limitation and nonlinear unknown parameters. In this paper, based on a two active wheels mobile robot kinematics and dynamics model, a Radial Basis Function neural network (RBFnn) was embedded into control system to approximate unknown terms. In mathematics aspect, the control algorithm is based on Lyapunov direct theory and backstepping method, which solving the states (position, orientation, velocity, etc) errors boundedness and convergence problem. The controller includes following aspects: 1.Driving robots states approach to predefined location, 2.Using saturation to avoid step signal disturbance, 3.Approximate unmodeled dynamic terms by RBF neural network. Moreover, a kind of cooperation control methodology was designed, to ensure several robots running in a specific formation. Finally, the simulation results performs that the system is stable and reasonable in the large modeling errors.
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