基于行星齿轮的欠驱动自适应机器人手指

Q. Quan, Qingchuan Wang, Z. Deng, Shengyuan Jiang, X. Hou, Dewei Tang
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引用次数: 5

摘要

不同于传统的行星齿轮减速器一输入一输出的使用方法,提出了一输入二输出的概念来驱动欠驱动手指。手指由三个自由度组成,由两个致动器驱动。MP关节由一个作动器驱动,PIP和DIP关节由另一个作动器驱动,动力分配采用行星齿轮减速器。在抓取物体时,手指可以通过差示欠驱动机构的自运动调谐来自动适应物体的形状。另外,在抓握过程中,当手指与外界物体发生碰撞时,该机构可以吸收冲击能量,从而保护执行机构。通过运动学和静力学分析,找出欠驱动手指各关节之间的相关运动关系。通过实验验证了所期望的手指特征和相关分析。
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A planetary gear based underactuated self-adaptive robotic finger
Different from the traditional using method of one-input-one-output in planetary gear reducer, a concept of one-input-two-output is proposed to drive an underactuated finger. A finger consisting of three degrees of freedom, is driven by two actuators. MP joint is driven by one actuator while PIP and DIP joints are driven by another actuator with power distribution by a planetary gear reducer. When grasping the object, the finger may adapt to its shape automatically through self-motion tuning of the differentially underactuated mechanism. Additionally, when collision between the finger and external objects occurs in the gripping process, the mechanism can absorb the impact energy so as to protect the actuator. Kinematics and statics are analyzed to figure out the related motion relationship among each joint for the underactuated finger. Experiments are conducted to verify the desired characteristics of the finger and the related analysis.
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