空间机械臂三种工作模式的运动学与仿真

Fuhai Zhang, Yili Fu, Shibo Yan, Shuguo Wang
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引用次数: 0

摘要

近年来,空间机器人的研究引起了人们的广泛关注。自由飞行或自由漂浮的空间机械臂系统,包括航天器和安装在航天器上的机械臂的运动学,是一个重要的问题。在自由漂浮工作模式下,航天器将在机械臂运动引起的扰动下自由运动。从应用的角度来看,航天器姿态的变化对于空间机械臂系统来说是不可取的。因此,采用自由漂浮零扰动航天器姿态工作方式具有重要意义。本文对空间机械臂系统的运动学进行了综述。分析了三种工作模式下的位置和速度运动学解。阐述了三种工作模式的运动学差异。仿真结果验证了三种工作模式下运动学解的有效性。
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Kinematics and simulations of space manipulator in three work modes
In recent years, research on space robotics has attracted considerable attention. Kinematics of the free-flying or free-floating space manipulator system, including a spacecraft and a manipulator mounted on the spacecraft, is a significant problem. In free-floating work mode, the spacecraft will move freely in response to the disturbances caused by the manipulator motions. From the view of application, change of the spacecraft attitude for the space manipulator system is not desirable. Therefore, it is of significance to adopt the free-floating with zero-disturbance spacecraft attitude work mode. This paper presents an overview of the kinematics of the space manipulator system. Position and velocity kinematics solutions in three work modes are analyzed. The kinematics differences among the three work modes are formulated. The simulation results validate the effectiveness of the kinematics solutions in the three work modes.
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