Biomimetic microstructures for photonic and fluidic synergies

M. Vasileiou, T. Mpatzaka, D. Alexandropoulos, N. Vainos
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引用次数: 2

Abstract

Abstract Nature-inspired micro- and nano-structures offer a unique platform for the development of novel synergetic systems combining photonic and microfluidic functionalities. In this context, we examine the paradigm of butterfly Vanessa cardui and develop artificial diffractive microstructures inspired by its natural designs. Softlithographic and nanoimprint protocols are developed to replicate surfaces of natural specimens. Further to their optical behavior, interphases tailored by such microstructures exhibit enhanced hydrophobic properties, as compared to their planar counterparts made of the same materials. Such synergies exploited by new design approaches pave the way to prospective optofluidic, lab-on-chip and sensing applications.
光子和流体协同作用的仿生微结构
受自然启发的微纳米结构为开发结合光子和微流体功能的新型协同系统提供了一个独特的平台。在此背景下,我们研究了蝴蝶Vanessa cardui的范例,并从其自然设计的启发下开发了人工衍射微结构。软光刻和纳米压印协议的发展,以复制自然标本的表面。除了光学性能外,与由相同材料制成的平面相相比,由这种微观结构定制的界面相表现出增强的疏水性。新设计方法所利用的这种协同作用为未来的光流体、芯片实验室和传感应用铺平了道路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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