JOURNAL ARTICLE

Superhydrophobic Shish-kebab Membrane with Self-Cleaning and Oil/Water Separation Properties

Shuangjie SunLiya ZhuXianhu LiuLili WuKun DaiChuntai LiuChangyu ShenXingkui GuoGuoqiang ZhengZhanhu Guo

Year: 2018 Journal:   ACS Sustainable Chemistry & Engineering Vol: 6 (8)Pages: 9866-9875   Publisher: American Chemical Society

Abstract

In nature, the water-repellent surface of a superhydrophobic material such as lotus has the micro/nano hierarchical structure, while shish-kebab, which is one of the most fascinating superstructure crystals in polymer science, also exhibits micro/nano hierarchical structure. Accordingly, it remains an idea of whether this structure can be used as the superhydrophobic materials. In this work, a modified flow-induced crystallization method was employed to fabricate a pure shish-kebab membrane, whose wetting behavior and other related performances were comprehensively studied. The membrane surface displays superhydrophobic characteristic with a static water contact angle of 161° and sliding angle of 3°. More importantly, the superhydrophobic membrane not only is of low adhesive, anti-impact, and self-cleaning performance, but also presents oil/water separation capacity, high absorption capacity with porosity (67–83%), and recyclability for organic liquids. This work proposed a new approach from the viewpoint of shish-kebab aggregation to construct a micro/nano structure in the polymer membrane with superhydrophobicity and other functional properties.

Keywords:
Contact angle Materials science Wetting Lotus effect Membrane Polymer Porosity Superstructure Crystallization Chemical engineering Membrane structure Nano- Nanotechnology Composite material Chemistry Organic chemistry

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Citation History

Topics

Surface Modification and Superhydrophobicity
Physical Sciences →  Materials Science →  Surfaces, Coatings and Films
Advanced Sensor and Energy Harvesting Materials
Physical Sciences →  Engineering →  Biomedical Engineering
Electrospun Nanofibers in Biomedical Applications
Physical Sciences →  Materials Science →  Biomaterials

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