考虑视场限制的基于中性网络的碰撞角控制研究

Shou Zhou, Shifeng Zhang, Shangwei Niu, Pan Wu
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引用次数: 0

摘要

考虑捷联导引头视场的冲击角控制制导问题已成为人们关注的热点,并已通过各种技术得到解决。然而,由于非线性系统的干扰,现有的大多数方法都存在制导指令波动的问题。本文采用基于自适应RBF神经网络的滑模控制器设计了视场约束的冲击角控制制导律。在控制器的设计中,采用对数障碍Lyapunov函数和二次Lyapunov函数强制系统在限定时间内达到滑模,并引入双曲正切函数解决视场限制问题。构造自适应RBF神经网络来逼近系统的不确定扰动,并在制导指令中作为补偿,以减轻不利的波动。最后,通过两种啮合场景的数值模拟验证了所提方案的性能。
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Research on Neutral Network Based Impact Angle Control Considering the Field-of-view Limitation
The impact angle control guidance problem considering the strapdown seeker’s field-of-view has become an interested topic and it has been solved by various techniques. However, most of the existing solutions suffer from undesirable fluctuation in their guidance commands due to the disturbance of the nonlinear system. In this paper, we design a field-of-view constrained impact angle control guidance law by using an adaptive RBF neural network based sliding mode controller. In the design of the controller, a logarithmic barrier Lyapunov function and a quadratic Lyapunov function are used for forcing the system to reach the sliding mode in limited time and a hyperbolic tangent function is introduced to solve the field-of-view limitation. An adaptive RBF neural network is constructed to approximate the system’s uncertain disturbance and the approximation serves as compensation in the guidance command to mitigate the adverse fluctuation. Finally, the performance of the proposed solution is verified by numerical simulations through two engagement scenarios.
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