倾斜长方体机械超材料的三维构造

Yunfang Yang, Z. You
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引用次数: 1

摘要

功能超材料正逐渐成为科学研究和工业应用的前沿。其中,具有内置运动能力的可重构机械超材料可以获得形状可调性、密度和刚度可编程等不同寻常的物理性能。受Ron Resch首次研究的可变形长方体结构的启发,我们提出了一种倾斜的长方体结构,可以折叠成三维结构。通过设计单个建筑单元、立面角度和镶嵌图案,我们能够构建一系列具有各种形状、捻度和渗透性的可重构结构。在此基础上,提出了一种构建多层超材料的组态方法,该方法可推广到其他具有不同建筑单元的倾斜结构。对不同模型的体积应变进行了分析,结果表明,该超材料具有巨大的变形能力,其最大体积可达到包装体积的4倍。倾斜长方体结构具有可变刚度和渗透性的高度柔性,可用于开发超材料、大变形装置和动力学结构。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
3D Construction of a Tilted Cuboid Mechanical Metamaterial
Functional metamaterials are gradually becoming the frontier of scientific research and industrial applications. Among them, reconfigurable mechanical metamaterial with inbuilt motion capability could result in unusual physical properties such as shape tunability and programmable density and stiffness. Inspired by the transformable cuboid structure that was first investigated by Ron Resch, we proposed a tilted cuboid structure that can fold into a 3D configuration. By designing the individual building units, face angles and tessellation pattern, we are able to construct a series of reconfigurable structures with various shape, twist and permeability feature. Based on our approach, a configuration method to build multi-layer metamaterial is proposed, and it can be generalized to other tilted structures with different building units. The volumetric strains of different models are analyzed, and the result shows the metamaterial has a massive deformation ability as the maximum volume can be four times of the packaged volume. The tilted cuboid structure is highly flexible with variable stiffness and permeability, and can be used to develop metamaterials, large deformation devices and kinetic architectures.
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