人机共享控制中的制导优先级自适应

Hao Ren, Zhichao Li, Qingyuan Wu, Dan Wu
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引用次数: 0

摘要

在手术、康复和远程操作等高度非结构化的环境中,共享控制架构允许操作员保留控制人机交互系统(HRI)的能力和优先级,其中机器人提供刚度和精度,而人类操作员决定战术机动,如避障和紧急接管。通过估计人的触觉意图,自适应地将操作力约束在非预期方向,期望自适应共享控制律不断地将引导优先级切换到人或机器人之间。为此,提出了一种基于引导虚拟夹具/主动约束的自适应导纳控制策略,以提高协同任务中的运行性能。通过综合自适应导纳控制和虚拟夹具制导,实现了操作者意图和预定制导轨迹在共享控制中的结合。理论分析和仿真结果验证了所提出的控制策略在HRI系统的特定任务中具有稳定性和灵活性的潜力。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Guidance Priority Adaptation in Human-Robot Shared Control
Demanded in highly unstructured environment like surgery, rehabilitation and teleoperation, shared control architecture allows operators to retain abilities and priority to control a human-robot interaction system (HRI), in which the robot provides stiffness and precision, and the human operator decides tactical maneuvering like obstacle avoidance and emergency takeover. By estimating haptic intention of human and adaptively restraining the operation force in unexpected direction, the adaptive shared control law is desired to continuously switch the lead priority to either the human or the robot. An adaptive admittance control strategy is thus developed based on the guidance virtual fixture (VF) /active constraint to promote the operation performance in collaborative tasks. By synthesizing adaptive admittance control and virtual fixture guidance, this comes true that the human operator’s intention and predefined guidance trajectory are combined in shared control. Both theoretical analysis and simulation results validate that the proposed control strategy has potential to provide stability and flexibility in the specific tasks for the HRI system.
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