教授 博士生导师
招生学科专业:
材料科学与工程 -- 【招收博士、硕士研究生】 -- 材料科学与技术学院
机械 -- 【招收博士、硕士研究生】 -- 材料科学与技术学院
材料与化工 -- 【招收博士、硕士研究生】 -- 材料科学与技术学院
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性别:男
毕业院校:南京航空航天大学
学历:南京航空航天大学
学位:工学博士学位
所在单位:材料科学与技术学院
办公地点:将军路校区D10-A405
联系方式:shenyizhou@nuaa.edu.cn
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所属单位:材料科学与技术学院
发表刊物:ACS SUSTAINABLE CHEMISTRY & ENGINEERING
关键字:Dynamic water repellency Impact droplet Superhydrophobic surface Wetting interfaces
摘要:Biomimetic surfaces with various extents of liquid adhesion intensely appeal to many researchers due to their academic significance and potential industry applications. The present work aims to discuss the relationship between bouncing dynamics of impact droplets and static liquid adhesion driven by micro/nanostructure features. Here, we fabricated three types of nanostructure (nanotube, nanomesh, and nanowire) superhydrophobic surfaces based on the TiO2 nanomaterials, and all of these resultant surfaces were endowed with the robust superhydrophobicity, and showed the low liquid adhesion with the sliding angles from 7.5 degrees to 3 degrees. Subsequently, the bouncing dynamics of impact droplets on these surfaces were evaluated and showed remarkable distinctions with different capacity to rebound off. This is explained in that the impact droplet has induced a higher capillary-induced adhesion force interaction as compared to the static droplet on the nanotube structure surface due to the existence of dynamic pressure during the moving process. The produced high capillary-induced adhesion force interaction finally caused the impact droplet to not bounce off the surface. On the contrary, the impact droplet can successfully bounce off the nanowire structure surface, which is mainly due to the almost no capillary adhesion force interaction induced by the open structure system on the superhydrophobic surface.
ISSN号:2168-0485
是否译文:否
发表时间:2018-08-01
合写作者:陶杰,Chen, Zhong,朱春玲,Wang, Guanyu,Chen, Haifeng,Liu, Senyun
通讯作者:沈一洲