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Fast processing nylon mesh by surface diffuse atmospheric plasma for large-area oil/water separation 被引量:2
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作者 Linfeng Yang Yaping Feng +4 位作者 Zengyi He Xinyan Jiang xianfeng luo Haoyu Dai Lei Jiang 《Nano Research》 SCIE EI CSCD 2023年第7期9625-9632,共8页
In recent years,numerous studies have been reported for oil/water separation,such as superoleophilic materials for oil absorption and underwater superoleophobic membranes for continuous separation.However,for the reco... In recent years,numerous studies have been reported for oil/water separation,such as superoleophilic materials for oil absorption and underwater superoleophobic membranes for continuous separation.However,for the recovery of oil slick pollution on near-shore ocean surface caused by various reasons,large area and fast availability of used materials are needed to be considered.Herein,we report an efficient and environmentally friendly method to fast process nylon mesh by surface diffuse atmospheric plasma(SDAP)for large-area oil/water separation.Nylon mesh is funcionalized by atmospheric plasma to generate micro/nano composite structures on the surface,resulting in superhydrophilicity and underwater superoleophobicity within only seconds.The pre-wetted modified nylon mesh can achieve high efficiency(>99.9%)and circulating water flux(~30,000 L·m^(-2)·h^(-1)),with high intrusion pressure(~3 kPa)and universality in oil/water separation.Regular plasma unconditionally generated in the atmosphere with the merit of efficiently functionalizing surface has the potential of large-area materials treatment.This study might take one step further for large-area industrial oily wastewater recovery and even oil slicks collection in near-shore water bodies. 展开更多
关键词 superwettability oil/water separation surface modification atmospheric plasma
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仿生超浸润界面材料与界面化学 被引量:4
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作者 罗显峰 张锡奇 江雷 《科学通报》 EI CAS CSCD 北大核心 2022年第32期3753-3765,共13页
界面浸润性是材料科学的根本问题之一,浸润性调控的研究无论在探索新知识,还是创造新应用方面都有重要意义.在过去20余年里,江雷团队通过向自然学习,总结了超浸润现象的3条基本原理:(1)静态浸润性决定于纳米结构和表面能的协同效应;(2)... 界面浸润性是材料科学的根本问题之一,浸润性调控的研究无论在探索新知识,还是创造新应用方面都有重要意义.在过去20余年里,江雷团队通过向自然学习,总结了超浸润现象的3条基本原理:(1)静态浸润性决定于纳米结构和表面能的协同效应;(2)表面超亲超疏在纳米结构上的转变点为液体亲疏界限;(3)化学组成梯度、粗糙梯度、曲率梯度等调控流体输运的方向.基于这些原理,进一步将超浸润界面材料体系扩展到界面化学.江雷团队建立了包括64个组合方案的超浸润界面材料体系,并拓展到不同压力和温度范围的各种液体体系,引领并推动了该领域在全球的发展.本文介绍了超浸润界面的设计与液/气/固三相界面浸润的新规律,若干超浸润界面材料体系在环境、农业、健康、材料、能源等领域的应用,以及近期关于量子限域超流领域的研究和应用前景. 展开更多
关键词 仿生 超浸润性 界面材料 界面化学 量子限域超流
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