Hybrid task priority-based motion control of a redundant free-floating space robot

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作者
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[1] ZHOU, Cheng
[2] JIN, Minghe
[3] LIU, Yechao
[4] XIE, Zongwu
[5] LIU, Hong
来源
JIN, Minghe (mhjin@hit.edu.cn) | 2024年 / Chinese Journal of Aeronautics卷 / 30期
关键词
Compensation strategy - Free-floating space robot - Hybrid tasks - Motion planning algorithms - Multiple constraint - Real time simulations - Satellite attitude control - Space robots;
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摘要
This paper presents a novel hybrid task priority-based motion planning algorithm of a space robot. The satellite attitude control task is defined as the primary task, while the least-squares-based non-strict task priority solution of the end-effector plus the multi-constraint task is viewed as the secondary task. Furthermore, a null-space task compensation strategy in the joint space is proposed to derive the combination of non-strict and strict task-priority motion planning, and this novel combination is termed hybrid task priority control. Thus, the secondary task is implemented in the primary task's null-space. Besides, the transition of the state of multiple constraints between activeness and inactiveness will only influence the end-effector task without any effect on the primary task. A set of numerical experiments made in a real-time simulation system under Linux/RTAI shows the validity and feasibility of the proposed methodology. © 2017
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