基于触手的机器人机械臂的可操纵性与稳定性

J. Pettinato, H. Stephanou
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引用次数: 49

摘要

提出了一种大规模冗余的基于触手的机器人机械手,以替代手臂/手组合的灵巧操作。触手是有利的,因为它是一个一体化的手臂和夹持装置,能够各种各样的配置和抓取,同时保持系列机械手的力学。本文回顾了一种评估机械人手施加给任意物体的力和速度的方法,并将其扩展到多个连续机械手在多个关节处与物体接触的情况。在此基础上,建立了考虑系统中每个串联机械手的多个目标接触的抓握可操纵性和稳定性的定量评价方法。提出了一种使用触手将精度和力量都应用于三维物体的方法,该方法允许在两者之间轻松过渡,只需从物体周围卷曲或解开卷曲的链接。这种方法有助于减少抓杆构型的复杂性。给出了不同触手操纵器和抓握器的数值模拟。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Manipulability and stability of a tentacle based robot manipulator
A massively redundant, tentacle-based robot manipulator is proposed as an alternative to dextrous manipulation by an arm/hand combination. The tentacle is advantageous because it is an all-in-one arm and gripping device capable of a wide variety of configurations and grasps, while maintaining the mechanics of serial manipulators. A method for evaluating the forces and velocities imparted to an arbitrary object by a robot hand is reviewed and extended to include the case where several serial manipulators each come in contact with an object at multiple joints. From this analysis, a quantitative evaluation of grasp manipulability and stability is developed that accounts for multiple object contacts for each serial manipulator in the system. A method of applying both precision and power grasps to three-dimensional objects using a tentacle is presented that allows for easy transition between the two by merely curling or uncurling links from around the object. This method helps reduce the number of complexity of grasp configurations. Numerical simulations of different tentacle manipulators and grasps are given.<>
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