School of Civil and Transportation Engineering, Hebei University of Technology, 5340 Xiping Road, Beichen District, Tianjin 300401, People's Republic of China.
Bioinspir Biomim. 2018 Jul 20;13(5):051001. doi: 10.1088/1748-3190/aacdd1.
Being one of the commonest deformation modes for soft matter, shell buckling is the primary reason for the growth and nastic movement of many plants, as well as the formation of complex natural morphology. On-demand regulation of buckling-induced deformation associated with wrinkling, ruffling, folding, creasing and delaminating has profound implications for diverse scopes, which can be seen in its broad applications in microfabrication, 4D printing, actuator and drug delivery. This paper reviews the recent remarkable developments in the shell buckling of soft matter to explain the most representative natural morphogenesis from the perspectives of theoretical analysis in continuum mechanics, finite element analysis, and experimental validations. Imitation of buckling-induced shape transformation and its applications are also discussed for the innovations of sophisticated materials and devices in future.
作为软物质最常见的变形模式之一,壳层屈曲是许多植物生长和弹性运动的主要原因,也是复杂自然形态形成的主要原因。与褶皱、波纹、折叠、起皱和分层相关的屈曲诱导变形的按需调节对广泛的领域具有深远的意义,在微制造、4D 打印、执行器和药物输送等领域都有广泛的应用。本文综述了软物质壳层屈曲的最新显著进展,从连续介质力学理论分析、有限元分析和实验验证的角度解释了最具代表性的自然形态发生。还讨论了屈曲诱导形状变换的模仿及其在未来复杂材料和器件创新中的应用。