由混合干扰过渡实现的贝壳生物激励变刚度机构

L. Arleo, Jasmine Pozzi, Niccolò Pagliarani, M. Cianchetti
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引用次数: 0

摘要

层干扰和正压干扰在软机器人中显示出巨大的应用潜力。这些技术的结合可以提高面向变刚度设计的性能。受海贝壳径向肋形状的启发,我们推出了一种平面轻量化装置,可以很容易地适应不同的应用场景,提供显著的刚度变化和高承载能力。利用系统在设计和制造方面的便利性,我们用不同数量的层测试了该设备。它显示出比标准层干扰系统更高的性能:特别是,每侧1层版本(7.5g)显示出64:1的可变刚度比和达到等于19N的10mm挠度所需的力。每边5层版本(17.2g)的相同值为42.5:1和62N。这些值与在层干扰文献中报道的最有前途的创新方法一致。此外,所提出的结果允许在引入的设备和生物对应物的性能方面进行比较,显示了海贝壳作为可变刚度系统的生物灵感来源的有效性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Sea Shell Bioinspired Variable Stiffness Mechanism Enabled by Hybrid Jamming Transition
Layer jamming and positive pressure jamming demonstrated great potential in soft robotic applications. The combination of these technologies can increase the performance of variable stiffness-oriented designs. Inspired by the shape of sea shell radial ribs, we introduce a planar lightweight device that can be easily adapted to different application scenarios, providing both significant stiffness variation and high load-bearing capabilities. Exploiting the ease of the system in terms of design and manufacturing, we tested the device with a different number of layers. It shows higher performances than standard layer jamming systems: in particular, the 1 layer per side version (7.5g) shows a variable stiffness ratio of 64:1 and a force required to reach a 10 mm deflection equal to 19N. The same values for the 5 layers per side version (17.2g) are 42.5:1 and 62N. These values are in line with the most promising innovative approaches reported in the literature on layer jamming. In addition, the presented results allow making a comparison between the introduced device and the biological counterpart in terms of performance, showing the validity of sea shells as a bioinspiration source for variable stiffness systems.
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