敏捷HRI应用中基于情境区域的异构安全传感器机器人控制

M. Bdiwi, Sebastian Krusche, Jayanto Halim, Paul Eichler, Shuxiao Hou, Aquib Rashid, Ibrahim Al Naser, Steffen Ihlenfeldt
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引用次数: 2

摘要

根据ISO/TS 15066标准,人机共享工作空间可以划分为不同的区域,并具有不同的协作模式。通常,这种划分是基于人与机器人之间的距离、人机交互的“HRI”水平以及风险评估。这些因素分别定义了机器人的速度以及在每个区域和每种操作模式下确保人类安全所需的传感器。在与工业机器人交互过程中,这一程序通常可以确保人类的安全。然而,生产力、效率和共享任务的多样性已经被超越。这项工作提出了一个系统,可以同时使用异构安全传感器在所有协同操作模式。在此基础上,利用三维高级选择矩阵提出了基于情景区域的机器人控制方法。根据任务和安全要求,每个机器人子空间都可以在每个区域进行视觉、力或位置控制。使用该系统,重型协作机器人“cobots”可以安全有效地与人类执行各种共享任务。所提出的方法在汽车行业的一个用例中进行了测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Situational zone-based robot control for heterogeneous safety sensors in agile HRI applications
According to the standard ISO/TS 15066, a human-robot shared workspace could be divided into different zones with various collaborative modes. Usually, this division is based on the distance between human and robot, the level of human-robot interaction “HRI”, and the risk assessment. These factors define the robot velocity and the required sensors for ensuring human safety in every zone and every operation mode separately. This procedure could generally ensure human safety during interaction with industrial robots. However, productivity, efficiency and diversity of the shared tasks have been overtaken. This work proposes a system that simultaneously can use heterogeneous safety sensors in all collaborative operation modes. Furthermore, it presents situational zone-based robot control with the help of 3D advanced selection matrices. Every robot-subspace could be vision-, force-, or position-controlled in every zone, depending on the tasks and safety requirements. Using the proposed system, heavy-duty and collaborative robot “cobots” can perform various shared tasks with humans safely and efficiently. The proposed approach is tested in one use case in the automotive industry.
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