Study of the double closed-loop active disturbance rejection control strategy for the longitudinal motion of fully submerged hydrofoil craft

IF 4.6 2区 工程技术 Q1 ENGINEERING, CIVIL
Bing Li , Zongjian Xu , Tianwen Mao , Zhicheng Jia , Liuke Wang , Yaqing Shu , Hongdan Liu
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引用次数: 0

Abstract

In the process of high-speed driving, the longitudinal motion of the hydrofoil craft has the characteristics of parameter uncertainty and strong coupling, which leads to poor stability of the hydrofoil craft and the problem of high precision requirement for disturbance wave data. Therefore, a control method based on active disturbance rejection control (ADRC) and double closed loop is proposed. The algorithm is under the condition of decoupling the ship’s motion attitude and realizes the internal and external double-loop active disturbance rejection control of pitch angle and heave displacement based on the high-order sliding mode observer (HSMO) with better adaptability. By designing the speed error integral sliding mode surface, the dynamic characteristics of the system have been improved., and improve overall hydrofoil stability at high speeds. Finally, based on the Unreal Engine 5 platform, a visual longitudinal motion control system of hydrofoil craft is constructed. The simulation results show that compared to the existing sliding control mode, this control method can reduce the heave displacement and pitch angle by about 50%, shorten the response time of real-time control of hydrofoil craft. The superiority and effectiveness of the control system were verified.
全潜式水翼船纵向运动的双闭环主动干扰抑制控制策略研究
在高速行驶过程中,水翼船的纵向运动具有参数不确定、耦合性强等特点,导致水翼船稳定性差,扰动波数据精度要求高的问题。因此,提出了一种基于主动干扰抑制控制(ADRC)和双闭环的控制方法。该算法在解耦船舶运动姿态的条件下,基于适应性更强的高阶滑模观测器(HSMO),实现了俯仰角和倾角位移的内外双环主动扰动抑制控制。通过设计速度误差积分滑模面,改善了系统的动态特性,提高了水翼在高速状态下的整体稳定性。最后,基于虚幻引擎 5 平台,构建了水翼船可视化纵向运动控制系统。仿真结果表明,与现有的滑动控制模式相比,该控制方法可减少约 50%的翻滚位移和俯仰角,缩短了水翼船实时控制的响应时间。该控制系统的优越性和有效性得到了验证。
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来源期刊
Ocean Engineering
Ocean Engineering 工程技术-工程:大洋
CiteScore
7.30
自引率
34.00%
发文量
2379
审稿时长
8.1 months
期刊介绍: Ocean Engineering provides a medium for the publication of original research and development work in the field of ocean engineering. Ocean Engineering seeks papers in the following topics.
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