Autonomous Control of the Large-Angle Spacecraft Maneuvers in a Non-Cooperative Mission

被引:1
作者
Huang, Cheng [1 ,2 ]
Cao, Tianzeng [1 ,2 ]
Huang, Jinglin [1 ,2 ]
机构
[1] Heilongjiang Prov Key Lab Complex Intelligent Sys, Harbin 150080, Peoples R China
[2] Harbin Univ Sci & Technol, Sch Automat, Harbin 150080, Peoples R China
基金
中国国家自然科学基金;
关键词
non-cooperative target; attitude large-angle maneuver; attitude estimation; finite-time control; attention mechanism; ATTITUDE TRACKING CONTROL; RIGID SPACECRAFT;
D O I
10.3390/s22228586
中图分类号
O65 [分析化学];
学科分类号
070302 ; 081704 ;
摘要
Aiming at the large-angle maneuver control problem of tracking spacecraft attitude in non-cooperative target rendezvous and proximity tasks, under the condition that the target spacecraft attitude information is unknown and the actuator output has physical limitations, a limited-time autonomous control method is proposed. First, an end-to-end pose estimation network is designed based on adaptive dual-channel feature extraction and dual attention. The information around the target is obtained through the adaptive dual-channel feature extraction module. The addition of spatial attention and channel attention allows the network to learn the target's characteristics more accurately. Secondly, based on the improved adaptive update law, a finite-time saturation controller is designed using the hyperbolic tangent function and the auxiliary system. The hyperbolic tangent function can strictly ensure that the control torque of the control system is bounded. Finally, the simulation results show that the proposed autonomous control method can accurately estimate the attitude of the non-cooperative target spacecraft and can maneuver to the target attitude within 20 s under the condition that the actuator's output is physically limited.
引用
收藏
页数:14
相关论文
共 31 条
[1]   SURF: Speeded up robust features [J].
Bay, Herbert ;
Tuytelaars, Tinne ;
Van Gool, Luc .
COMPUTER VISION - ECCV 2006 , PT 1, PROCEEDINGS, 2006, 3951 :404-417
[2]   Robust fixed-time attitude stabilization control of flexible spacecraft with actuator uncertainty [J].
Cao, Lu ;
Xiao, Bing ;
Golestani, Mehdi .
NONLINEAR DYNAMICS, 2020, 100 (03) :2505-2519
[3]   Satellite Pose Estimation with Deep Landmark Regression and Nonlinear Pose Refinement [J].
Chen, Bo ;
Cao, Jiewei ;
Parra, Alvaro ;
Chin, Tat-Jun .
2019 IEEE/CVF INTERNATIONAL CONFERENCE ON COMPUTER VISION WORKSHOPS (ICCVW), 2019, :2816-2824
[4]   Kinematics-based incremental visual servo for robotic capture of non-cooperative target [J].
Dong, Gangqi ;
Zhu, Zheng H. .
ROBOTICS AND AUTONOMOUS SYSTEMS, 2019, 112 :221-228
[5]   Attitude trajectory planning and attitude control for quad-rotor aircraft based on finite-time control technique [J].
Du, Haibo ;
Yu, Bo ;
Wei, Jiajia ;
Zhang, Jun ;
Wu, Di ;
Tao, Weiqing .
APPLIED MATHEMATICS AND COMPUTATION, 2020, 386
[6]   Finite-Time Attitude Tracking Control of Spacecraft With Application to Attitude Synchronization [J].
Du, Haibo ;
Li, Shihua ;
Qian, Chunjiang .
IEEE TRANSACTIONS ON AUTOMATIC CONTROL, 2011, 56 (11) :2711-2717
[7]   Distributed fixed-time attitude coordinated control for multiple spacecraft with actuator saturation [J].
Gao, Han ;
Xia, Yuanqing ;
Zhang, Xiaopu ;
Zhang, Guangchen .
CHINESE JOURNAL OF AERONAUTICS, 2022, 35 (04) :292-302
[8]   Simple finite-time attitude stabilization laws for rigid spacecraft with bounded inputs [J].
Gui, Haichao ;
Jin, Lei ;
Xu, Shijie .
AEROSPACE SCIENCE AND TECHNOLOGY, 2015, 42 :176-186
[9]   Backstepping control for attitude tracking of the spacecraft under input saturation [J].
Guo, Yong ;
Guo, Jin-hua ;
Song, Shen-min .
ACTA ASTRONAUTICA, 2017, 138 :318-325
[10]  
Hogan M., 2021, arXiv