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Design, Fabrication and Testing of ModBot, the Biomimetic, Backdrivable, Modular Finger Robot.

机译:仿生,可逆驱动的模块化手指机器人ModBot的设计,制造和测试。

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摘要

The work in this thesis introduces a new type of biomimetic fully backdrivable modular robotic finger that makes use of low friction joints actuated by cable drives to achieve given tasks such as reaching, grasping fragile objects and applying force to surfaces. The ModBot finger is a 3 degree of freedom finger that has the capabilities to process force and touch sensation at and along the tip of the finger while retaining all capable movement and degrees of freedom achieved by a human finger.;Every piece of the ModBot finger has evolved many times in order to shed weight, lower inertia and achieve a backdrivable system. To achieve a true backdrivable system gears could not be used, due to the backlash, friction had to be reduced to its smallest value, weight was optimized for a high strength to weight ratio and part shapes were carefully engineered to achieve a low inertia, all of this allows for a smooth operating joint. This is all achieved with a minimal amount of parts used per finger.;The contribution of this thesis is to create a modular finger robot that is fully backdrivable, biomimetic and that does not use gears. The second contribution is to optimize the design of the robot utilizing different materials, mechanisms and sensors to achieve near frictionless movement. The final contribution is to design the robot that can be modular, so that it can placed in various positions with multiple fingers to accommodate a given situation or test setup.
机译:本文的工作介绍了一种新型的仿生完全可反向驱动的模块化机械手手指,该手指利用电缆驱动器驱动的低摩擦关节来完成给定的任务,例如伸手,抓住易碎物体和向表面施加力。 ModBot手指是3自由度手指,具有处理手指尖端和沿手指尖端的力和触感的能力,同时保留了人手指实现的所有可能的移动和自由度。为了减轻重量,降低惯性并实现可逆驱动系统,它已经发展了许多次。为了实现真正的可反向驱动的系统齿轮,由于存在间隙,必须将摩擦减小到最小,优化重量以实现高强度重量比,并精心设计零件形状以实现低惯性,所有这样可以实现平稳的操作关节。这一切都需要用每个手指使用最少的零件来实现。;本文的目的是创建一种模块化的手指机器人,该机器人可以完全反向驱动,仿生并且不使用齿轮。第二个贡献是利用不同的材料,机制和传感器来优化机器人的设计,以实现近乎无摩擦的运动。最后的贡献是设计了可以模块化的机器人,以便可以用多个手指将其放置在不同的位置,以适应给定的情况或测试设置。

著录项

  • 作者

    Kelley, Michael Scott.;

  • 作者单位

    University of California, San Diego.;

  • 授予单位 University of California, San Diego.;
  • 学科 Design and Decorative Arts.;Engineering Robotics.
  • 学位 M.S.
  • 年度 2011
  • 页码 105 p.
  • 总页数 105
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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