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Neural-network-based finite horizon optimal control for partially unknown linear continuous-time systems

机译:部分未知线性连续时间系统的基于神经网络的有限水平最优控制

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In this paper, we establish a neural-network-based online learning algorithm to solve the finite horizon linear quadratic regulator (FHLQR) problem for partially unknown continuous-time systems. To solve the FHLQR problem with partially unknown system dynamics, we develop a time-varying Riccati equation. A critic neural network is used to approximate the value function and the online learning algorithm is established using the policy iteration technique to solve the time-varying Riccati equation. An integral policy iteration method and a tuning law are used when the algorithm is implemented without the knowledge of the system drift dynamics. We give a simulation example to show the effectiveness of this algorithm.
机译:在本文中,我们建立了一种基于神经网络的在线学习算法,以解决部分未知连续时间系统的有限水平线性二次调节器(FHLQR)问题。为了解决部分未知的系统动力学问题的FHLQR问题,我们开发了一个时变的Riccati方程。使用评论者神经网络对值函数进行近似,并使用策略迭代技术建立在线学习算法来求解时变Riccati方程。在不了解系统漂移动力学的情况下实施算法时,将使用积分策略迭代方法和调整律。我们给出一个仿真例子来说明该算法的有效性。

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