Design of a New Torso-Joint for the Humanoid Robot ARMAR

C. Sander, T. Soworka, A. Albers
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引用次数: 6

Abstract

The development of a humanoid robot within the scope of the Collaborative Research Center 588 (SFB 588) has the objective of creating a machine that can cooperate with humans closely. For designers, computer scientists and me- chanical and electrical engineers this development area presents great challenges. In contrast to commercial industrial ro- bots - for which mechanical rigidity, precision, high velocities and accelerations are primary requirements - the key aspects here are prevention of hazards to users, a motion space that corresponds to that of human beings, and a lightweight design. In order to meet these requirements, the robot must have humanlike appearance, motion space, and dexterity. Additionally, its kinematics should be familiar to the user, and its motions predictable, so as to encourage inexperienced persons to inter- act with the machine. The human spine offers great flexibility and is loaded with the weight of at least the whole upper body. On this account the emulation of the human upper body movement describes one of the most advanced issues in hu- manoid robot design. For the next generation of the humanoid robot ARMAR, a new concept to achieve a better flexibility in the robot's upper body movement has been done. This new torso-joint offers high stiffness, better accuracy and simulta- neously reduces weight and construction volume. Spring elements are used to save energy and to support the engines. In this paper the new mechanical design and first calculated results, considering energy saving potential and stiffness, are de- scribed in detail.
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仿人机器人ARMAR新型躯干关节设计
在合作研究中心588 (SFB 588)范围内开发人形机器人的目标是创造一种可以与人类密切合作的机器。对于设计师、计算机科学家和机电工程师来说,这一发展领域提出了巨大的挑战。商用工业机器人的主要要求是机械刚性、精度、高速度和加速度,与之相反,这里的关键方面是防止对用户造成危害,运动空间与人类的运动空间相对应,以及轻量化的设计。为了满足这些要求,机器人必须具有与人相似的外观、运动空间和灵巧性。此外,它的运动学应该是用户熟悉的,它的运动是可预测的,以鼓励没有经验的人与机器互动。人类的脊柱提供了很大的灵活性,并且承载了至少整个上半身的重量。因此,人体上肢运动的仿真是仿人机器人设计的一个前沿问题。对于下一代仿人机器人ARMAR,在机器人上半身运动中实现了更好的灵活性,这是一个新的概念。这种新的躯干-关节提供高刚度,更好的精度,同时减少重量和结构体积。弹簧元件用于节约能源和支持发动机。本文详细介绍了考虑节能潜力和刚度的新机构设计和初步计算结果。
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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