Research on Horizontal Following Control of a Suspended Robot for Self-Momentum Targets

Dan Xiong, Yiyong Huang, Yanjie Yang, Hongwei Liu, Zhijie Jiang, Wei Han
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Abstract

Micro/low gravity is one of the most prominent features of the outer space environment, and it significantly alters the force state and dynamics of spacecraft or astronauts compared to the Earth’s gravitational environment. It is crucial to simulate the micro/low gravity environment on the ground for astronaut training or spacecraft testing. The suspension method utilizes a pulley and sling mechanism to create a micro-low gravity environment. This method counteracts the gravitational force exerted by the object based on rope tension. The simulation effect greatly depends on the accuracy of the horizontal following system, which serves as the central subsystem of the suspension device. In this paper, we propose a dual-arm following system to solve the issue of horizontal following for self-momentum targets. In addition, we conduct research on adaptive inhibition technology for flexible rope swing, and coupling control between a robotic arm and a crane. Physical experiments are conducted on the robotic system to verify the effectiveness of the proposed approach.
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悬挂式机器人对自重目标的水平跟随控制研究
微/低重力是外层空间环境最突出的特征之一,与地球重力环境相比,它极大地改变了航天器或宇航员的受力状态和动力学特性。在地面模拟微重力/低重力环境对于宇航员训练或航天器测试至关重要。悬挂法利用滑轮和吊索装置来创造微低重力环境。这种方法根据绳索张力抵消物体施加的重力。模拟效果在很大程度上取决于水平跟随系统的精度,该系统是悬挂装置的核心子系统。本文提出了一种双臂跟随系统,以解决自动量目标的水平跟随问题。此外,我们还对柔性摆绳的自适应抑制技术以及机械臂与起重机之间的耦合控制进行了研究。我们在机器人系统上进行了物理实验,以验证所提方法的有效性。
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