The Wavejoints: A Novel Methodology to Design Soft-Rigid Grippers Made by Monolithic 3D Printed Fingers with Adjustable Joint Stiffness

Mihai Dragusanu, G. M. Achilli, M. C. Valigi, D. Prattichizzo, M. Malvezzi, G. Salvietti
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引用次数: 4

Abstract

In this paper, we present a methodology to design soft-rigid grippers able to perform different manipulation tasks. The main idea is the introduction of wave-shaped hinges whose geometrical parameters can be designed to achieve different three-dimensional impedance characteristics. This allows one to use the same tendon-driven actuation to perform different tasks including grasping objects with different shapes and in-hand manipulation of small objects. We report all design procedures and an experimental evaluation of two different prototypes exploiting two possible tasks, the first one is designed to grasp objects adapting to different shapes and dimensions, the second one performs an in-hand manipulation task consisting in object rotation with respect to an axis perpendicular to hand palm, resembling a “screw” movement. Obtained results confirm the feasibility and potentialities of the proposed methodology, that can be applied to obtain 3D printed monolithic fingers able to move in predefined directions when activated through a tendon-driven system, paving the way toward a new task-specific realization of compliant grippers.
波形关节:一种设计关节刚度可调的单片3D打印手指软硬夹持器的新方法
在本文中,我们提出了一种方法来设计软刚性夹具能够执行不同的操作任务。主要思想是引入波形铰链,通过设计波形铰链的几何参数来实现不同的三维阻抗特性。这允许人们使用相同的肌腱驱动驱动来执行不同的任务,包括抓取不同形状的物体和手持操作小物体。我们报告了所有的设计过程和两种不同原型的实验评估,利用两种可能的任务,第一个被设计用于抓取适应不同形状和尺寸的物体,第二个执行手持操作任务,包括物体相对于垂直于手掌的轴旋转,类似于“螺旋”运动。所获得的结果证实了所提出方法的可行性和潜力,该方法可以应用于获得3D打印的单片手指,当通过肌腱驱动系统激活时,能够在预定义的方向上移动,为实现新的特定任务的柔性夹具铺平了道路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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