Design of a Flexible Articulated Robotic Hand for a Humanoid Robot

Li Tian, Jing Liu, N. Magnenat-Thalmann, D. Thalmann, Jianmin Zheng
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引用次数: 5

Abstract

It is often desirable for humanoid robots to have dexterous hands and perform human-like grasps. This requires a deliberate design of hands, in addition to a good actuation system and an efficient 3D vision system. In this paper, we present a simple method to produce a customized articulated robotic hand for a humanoid robot (eg., Nadine social robot). Our method acquires the 3D shape by 3D scanning, which can cost-effectively generate customized hands. Guided by the human hand anatomy and inspired by the progress of 3D printing technology, we model the structure of the robotic hand using standard shapes such as cuboids, spheres and cylinders, which are adapted to match the scanned shape and fabricated using 3D printing. Moreover, we choose flexible resin materials11https://formlabs.com/3d-printers/form-2/, which are supported by 3D printers, to make the fabricated hand flexible enough for natural deformation. As a result, our designed robotic hand has six degrees of freedom and together with a cable-driven actuation system can achieve the range of motion as a human hand. Experimental results demonstrated that our robotic hand is capable of grasping a variety of objects with different shapes.
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仿人机器人柔性关节机械臂的设计
人们通常希望人形机器人拥有灵巧的手,并能像人一样抓取。除了良好的驱动系统和高效的3D视觉系统外,这还需要精心设计的手。在本文中,我们提出了一种简单的方法来生产定制的铰接机械手人形机器人(如。,纳丁社交机器人)。该方法通过三维扫描获取三维形状,可以经济有效地生成定制手。在人体手部解剖结构的指导下,受3D打印技术进步的启发,我们使用长方体,球体和圆柱体等标准形状来模拟机器人手的结构,这些形状与扫描形状相匹配,并使用3D打印制造。此外,我们选择了柔性树脂材料(11https://formlabs.com/3d-printers/form-2/),这些材料由3D打印机支持,使制造的手足够灵活,可以进行自然变形。因此,我们设计的机器人手具有六个自由度,并且与电缆驱动的驱动系统一起可以实现人手的运动范围。实验结果表明,我们的机械手能够抓取各种形状的物体。
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