控制理论(社会学)
反推
Lyapunov稳定性
动态定位
控制器(灌溉)
观察员(物理)
控制工程
李雅普诺夫函数
滤波器(信号处理)
工程类
控制系统
补偿(心理学)
模糊逻辑
计算机科学
理论(学习稳定性)
遥控水下航行器
自适应控制
移动机器人
控制(管理)
机器人
人工智能
非线性系统
心理学
物理
精神分析
农学
机器学习
海洋工程
量子力学
生物
电气工程
作者
Jun Tang,Yanxia Qin,Zhaokai Dang
摘要
Abstract To deal with the problems of low positioning accuracy and poor stability caused by model parameter uncertainty and external disturbances in the remotely operated vehicle (ROV) dynamic positioning control system, the adaptive fuzzy control is combined with a disturbance observer to estimate the lumped disturbances and the error compensation mechanism is introduced to design the ROV dynamic positioning controller based on the finite‐time command filter. The combination of finite‐time command filter control and the backstepping method ensures that the positioning error converges to a smaller neighborhood near zero in finite time. The stability of the closed‐loop system is demonstrated according to the Lyapunov stability theory. The simulation results show that a 13% performance improvement over traditional backstepping methods is achieved by the designed controller, effectively suppressing system lumped disturbances and achieving fast and accurate positioning of the desired positions.
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