多材料气动软执行器设计与制造的无缝工作流

Lawrence Smith, Travis Hainsworth, Zachary Jordan, Xavier Bell, R. MacCurdy
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引用次数: 4

摘要

相对于传统的刚性机器人,软机器人执行器提供了一系列有吸引力的功能,包括固有的更安全的人机交互和对意外或极端负载条件的鲁棒性。软机器人的设计和制造具有挑战性,大多数执行机构都是通过试错设计和采用劳动密集型多步铸造工艺制造的。我们提出了一个集成的软件工具集合,解决了气动软执行器现有设计和制造工作流程中的几个限制。我们使用隐式几何函数来指定几何和材料分布,一个基于gui的软件工具用于交互式探索这些隐式函数的计算网络表示,以及一个自动化工具用于生成候选设计的快速仿真结果。我们优先考虑设计和制造过程中所有阶段之间的无缝连接,并消除需要人工干预的步骤。这里介绍的软件工具集成了现有的多材料增材制造功能,并且还与新兴的自动化设计技术向前兼容。这里提出的工作流程旨在作为社区资源,旨在降低专家和新手用户发现新型软执行器的障碍。从与该工具的人机交互中收集的数据将用于未来的自动化工具,以实现基于高级规格的全自动软执行器设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Seamless Workflow for Design and Fabrication of Multimaterial Pneumatic Soft Actuators
Soft robotic actuators offer a range of attractive features relative to traditional rigid robots including inherently safer human-robot interaction and robustness to unexpected or extreme loading conditions. Soft robots are challenging to design and fabricate, and most actuators are designed by trial and error and fabricated using labor-intensive multi-step casting processes. We present an integrated collection of software tools that address several limitations in the existing design and fabrication workflow for pneumatic soft actuators. We use implicit geometry functions to specify geometry and material distribution, a GUI-based software tool for interactive exploration of computational network representations of these implicit functions, and an automated tool for generating rapid simulation results of candidate designs. We prioritize seamless connectivity between all stages of the design and fabrication process, and elimination of steps that require human intervention. The software tools presented here integrate with existing capabilities for multimaterial additive manufacturing, and are also forward-compatible with emerging automated design techniques. The workflow presented here is intended as a community resource, and aimed at lowering barriers for the discovery of novel soft actuators by experts and novice users. The data gathered from human-interaction with this tool will be used by future automation tools to enable fully-automated soft actuator design based on high-level specifications.
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