A De-risked Bio-inspired Condylar Prosthetic Knee Joint for a Robotic Leg Test Rig

Subham Agrawal, Chathura Simasinghe, A. Jafari, Appolinaire C. Etoundi, J. Chong
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引用次数: 1

Abstract

The design of the human knee joint has been a challenging task due to the presence of intricate parts, complex mechanisms and their interdependence which joins them together. A bio-inspired design for the condylar knee joint has been proposed in earlier publications [1], [2]. However, the manufacturing limitation of the design was not considered. This paper introduces a de-risked and optimised design through the use of standard design and manufacturing techniques based on the gathered data from a robotics leg test bench. Moreover, this paper presents an optimised design derived from a state-of-the-art artificial intelligence tool. The optimized design using conventional methods is tested against real-world loading conditions during finite element analysis and the results are presented.
用于机器人腿试验台的低风险仿生髁状假膝关节
人类膝关节的设计一直是一项具有挑战性的任务,因为存在复杂的零件,复杂的机制和它们相互依存的关系,将它们连接在一起。在早期的出版物[1],[2]中提出了一种仿生设计髁状膝关节。然而,没有考虑设计的制造限制。本文介绍了一个去风险和优化设计,通过使用标准的设计和制造技术为基础,从机器人腿试验台收集的数据。此外,本文提出了一个优化设计源自最先进的人工智能工具。在有限元分析中,对采用传统方法进行的优化设计进行了实际载荷条件下的试验,并给出了结果。
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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