Evaluation of force pain thresholds to ensure collision safety in worker-robot collaborative operations

Ganix Lasa, Giovanni Legnani, Hien Nguyen, Mondragon Assembly, Spain, D. Han, M. Y. Park, J. Choi, H. Shin, R. Behrens, S. Rhim
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Abstract

With the growing demand for robots in the industrial field, robot-related technologies with various functions have been introduced. One notable development is the implementation of robots that operate in collaboration with human workers to share tasks, without the need of any physical barriers such as safety fences. The realization of such collaborative operations in practice necessitates the assurance of safety if humans and robots collide. Thus, it is important to establish criteria for such collision scenarios to ensure robot safety and prevent injuries. Collision safety must be ensured in both pinching (quasi-static contact) and impact (transient contact) situations. To this end, we measured the force pain thresholds associated with impacts and evaluated the biomechanical limitations. This measurements were obtained through clinical trials involving physical collisions between human subjects and a device designed for generating impacts, and the force pain thresholds associated with transient collisions between humans and robots were analyzed. Specifically, the force pain threshold was measured at two different locations on the bodies of 37 adults aged 19–32 years, using two impactors with different shapes. The force pain threshold was compared with the results of other relevant studies. The results can help identify biomechanical limitations in a precise and reliable manner to ensure the safety of robots in collaborative applications.
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评估力痛阈值,确保工人与机器人协作操作中的碰撞安全
随着工业领域对机器人的需求日益增长,与机器人相关的各种功能技术也相继问世。其中一个值得注意的发展是,机器人可以与人类工人协作分担任务,而无需任何物理障碍(如安全围栏)。要在实践中实现这种协作操作,就必须确保在人类和机器人发生碰撞时的安全。因此,必须制定此类碰撞情景的标准,以确保机器人的安全并防止伤害。在挤压(准静态接触)和撞击(瞬态接触)两种情况下,都必须确保碰撞安全。为此,我们测量了与碰撞相关的力痛阈值,并评估了生物力学限制。这些测量结果是通过临床试验获得的,其中涉及人类受试者与设计用于产生撞击的设备之间的物理碰撞,并分析了与人类和机器人之间的瞬时碰撞相关的力痛阈值。具体来说,使用两个不同形状的撞击器,在 37 名 19-32 岁成年人身体的两个不同位置测量了力痛阈值。将力痛阈值与其他相关研究的结果进行了比较。研究结果有助于以精确可靠的方式识别生物力学限制,确保机器人在协作应用中的安全性。
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