Backstepping Sliding Mode Course Control for the Hovercraft With Yaw Rate Constraint and System Uncertainty

被引：3

作者：

Ding, Fuguang ^{[1
]}

Jia, Zhaowei ^{[1
]}

Wang, Yuanhui ^{[1
]}

机构：

[1] Harbin Engn Univ, Coll Intelligent Syst Sci & Engn, Harbin 150001, Peoples R China

来源：

IEEE ACCESS | 2021年 / 9卷

基金：

中国国家自然科学基金;

关键词：

Uncertainty; Dynamical systems; Backstepping; Surface resistance; Observers; Marine vehicles; Lyapunov methods; Hovercraft; yaw rate constraint; backstepping sliding mode control; sliding mode observer; auxiliary dynamic system;

D O I：

10.1109/ACCESS.2020.3041050

中图分类号：

TP [自动化技术、计算机技术];

学科分类号：

0812 ;

摘要：

The course control problem of hovercraft with yaw rate constraint is studied under the system uncertainty caused by model parameter uncertainties and external disturbances. Firstly, a sliding mode observer is proposed to estimate the system uncertainty, which effectively compensates the influence of uncertainty in the process of course control. Secondly, the direct method and indirect method are used to constrain the yaw rate while designing the controller with the backstepping sliding mode. The auxiliary dynamic system is used to adjust the control input in the direct method, while the auxiliary dynamic system is used to constrain the virtual yaw rate, at the same time, the barrier Lyapunov function is used to limit the yaw rate error in the indirect method. Finally, simulation results verify the effectiveness of the method proposed in the terms of uncertainty estimation and yaw rate constraint of hovercraft. It also shows that the indirect method is better than the direct method to strictly constrain the yaw rate.

引用

页码：1882 / 1895

页数：14

共 41 条

[1] Barrier Lyapunov function-based adaptive control for hypersonic flight vehicles [J].

An, Hao ;

Xia, Hongwei ;

Wang, Changhong .

NONLINEAR DYNAMICS, 2017, 88 (03) :1833-1853

[2] A Novel Neural-Network-Based Adaptive Control Scheme for Output-Constrained Stochastic Switched Nonlinear Systems [J].

Niu, Ben ;

Wang, Ding ;

Li, Huan ;

Xie, Xuejun ;

Alotaibi, Naif D. ;

Alsaadi, Fuad E. .

IEEE TRANSACTIONS ON SYSTEMS MAN CYBERNETICS-SYSTEMS, 2019, 49 (02) :418-432

[3] Wave resistance of a hovercraft moving in water with nonrigid bottom [J].

Cohen, M ;

Miloh, T ;

Zilman, G .

OCEAN ENGINEERING, 2001, 28 (11) :1461-1478

[4] Second-order sliding-mode observer for mechanical systems [J].

Davila, J ;

Fridman, L ;

Levant, A .

IEEE TRANSACTIONS ON AUTOMATIC CONTROL, 2005, 50 (11) :1785-1789

[5] Extended-State-Observer-Based Adaptive Control of Electrohydraulic Servomechanisms Without Velocity Measurement [J].

Deng, Wenxiang ;

Yao, Jianyong .

IEEE-ASME TRANSACTIONS ON MECHATRONICS, 2020, 25 (03) :1151-1161

[6] Robust adaptive control of underactuated ships on a linear course with comfort [J].

Do, KD ;

Pan, J ;

Jiang, ZP .

OCEAN ENGINEERING, 2003, 30 (17) :2201-2225

[7] Robust dynamic positioning of ships with disturbances under input saturation [J].

Du, Jialu ;

Hu, Xin ;

Krstic, Miroslav ;

Sun, Yuqing .

AUTOMATICA, 2016, 73 :207-214

[8] Terminal sliding mode control for the trajectory tracking of underactuated Autonomous Underwater Vehicles [J].

Elmokadem, Taha ;

Zribi, Mohamed ;

Youcef-Toumi, Kamal .

OCEAN ENGINEERING, 2017, 129 :613-625

[9] Nonlinear output feedback control of dynamically positioned ships using vectorial observer backstepping [J].

Fossen, TI ;

Grovlen, A .

IEEE TRANSACTIONS ON CONTROL SYSTEMS TECHNOLOGY, 1998, 6 (01) :121-128

[10]

Fu H., 2008, Ship Boat, V6, P1

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