Through billions of years of evolution, nature has optimized the programmed assembly of the nano- and micro-scale structures of biological materials. Nanoparticle assembly provides an avenue for mimick- ing these mult...Through billions of years of evolution, nature has optimized the programmed assembly of the nano- and micro-scale structures of biological materials. Nanoparticle assembly provides an avenue for mimick- ing these multiscale functional structures. Bio-inspired surfaces with special wettability have attracted much attention for both fundamental research and practical applications. In this review, we focus on recent progress in nanoparticle assembly-induced special wettability, including superhydrophilic surfaces, superhydrophobic surfaces, superamphiphobic surfaces, stimuli-responsive surfaces, and self- healing surfaces. A brief summary and an outlook of the future of this research field are also provided.展开更多
基金financial supports from the National Natural Science Foundation of China(21273016,21001013)National Basic Research Program of China(2013CB933003,2010CB934700)+2 种基金Program for New Century Excellent Talents in UniversityBeijing Natural Science Foundation(2122035)the Key Research Program of the Chinese Academy of Sciences(KJZD-EW-M01)
文摘Through billions of years of evolution, nature has optimized the programmed assembly of the nano- and micro-scale structures of biological materials. Nanoparticle assembly provides an avenue for mimick- ing these multiscale functional structures. Bio-inspired surfaces with special wettability have attracted much attention for both fundamental research and practical applications. In this review, we focus on recent progress in nanoparticle assembly-induced special wettability, including superhydrophilic surfaces, superhydrophobic surfaces, superamphiphobic surfaces, stimuli-responsive surfaces, and self- healing surfaces. A brief summary and an outlook of the future of this research field are also provided.
