基于杨树叶片设计的超疏水结构

J. Victor, U. Erb
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引用次数: 12

摘要

本研究对天然超疏水结构的结构和机械设计概念进行了分析。研究表明,两种杨树家族成员叶片的不润湿行为主要归因于由微乳头和纳米蜡片组成的双尺度表面结构。然而,大叶柄长径比和相关的低惯性矩进一步增强了非润湿效果,对叶片弯曲的阻力很小。即使没有明显的微风,这些叶柄尺寸也会导致叶子过度晃动,促进有效的水滴滚落和干燥的叶子表面。初步得出结论,这种叶片设计可能有助于白杨在各种环境条件下快速生长的能力。模拟微/纳米结构、表面形貌和机械运动的综合效应,有助于开发更广泛的超疏水材料的设计概念范围。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Superhydrophobic Structures on the Basis of Aspen Leaf Design
This study is concerned with an analysis of the structural and mechanical design concepts in naturally occurring superhydrophobic structures. It is shown that the non-wetting behaviour of the leaves of two members of the aspen family can be primarily attributed to a dual-scale surface structure consisting of micro-papillae and nano-wax platelets. However, the non-wetting effect is further enhanced by the large leafstalk aspect ratio and associated low moment of inertia, offering little resistance to leaf bending. These leafstalk dimensions result in excessive shaking of the leaves even when there is no noticeable breeze, promoting efficient water droplet roll-off and dry leaf surfaces. It is tentatively concluded that this leaf design may contribute to the aspens' ability to quickly grow in a wide range of environmental conditions. Mimicking the combined effects of micro/nanostructure surface morphology and mechanical motion could be useful in developing a broader design concept range for superhydrophobic...
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