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A multi-jointed underactuated robot hand with fluid-driven stretchable tubes

机译:具有流体驱动的可伸缩管的多关节欠驱动机器人手

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摘要

Inspired from flexible bending of octopus’ tentacles and outside-driving kind of traditional exoskeletons, this paper proposed a novel self-adaptive underactuated finger mechanism, called OS finger. OS finger is similar to an octopus’ tentacle and consists of an artificial muscle which is through all joints and driven by fluid, eight serial-hinged joints, and force-changeable assembly. The force-changeable assembly is mainly composed of a spring and elastic rubber membrane, which is coordinated for stable grasping by a layer of rubber material in the surface of the finger. OS finger can execute different grasping modes depending on the shapes and dimensions of the grasped objects and grip objects in a gentle and form-fitting manner. The OS finger combines good qualities of both rigid grasp of traditional fingers and form-fitting grasp of flexible fingers. Kinematic analysis and experimental results show that the OS robot Hand with four OS fingers is valid for precise pinching, self-adaptive powerful encompassing, and grasping forces that are freely changeable in a wide range. With the advantage of high self-adaptation, various grasp configurations and large range of grasping forces, the OS Hand has a wide range of applications in the area of service robotics which requires a lot of flexible operations of general grasping, moving and releasing.
机译:受章鱼触角的柔性弯曲和传统外骨骼的外部驱动的启发,本文提出了一种新型的自适应欠驱动手指机制,称为OS手指。 OS手指类似于章鱼的触手,由一条贯穿所有关节并由液体驱动的人造肌肉,八个串联铰接关节和可改变力的组件组成。力可变组件主要由弹簧和弹性橡胶膜组成,通过手指表面的一层橡胶材料进行协调,以稳定抓握。 OS手指可以根据被抓物体的形状和尺寸执行不同的抓握模式,并以柔和贴合的方式抓握物体。 OS手指结合了传统手指的刚性抓握和柔性手指的合身抓握的优良品质。运动学分析和实验结果表明,具有四个OS手指的OS机器人手适用于精确的捏合,自适应强大的包围以及可在很大范围内自由变化的抓握力。凭借高度的自适应性,各种抓握配置和大范围的抓握力,OS Hand在服务机器人领域具有广泛的应用,需要大量灵活的常规抓握,移动和释放操作。

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