Hydrophobic Ionic Liquid Tuning Hydrophobic Carbon to Superamphiphilicity for Reducing Diffusion Resistance in Liquid-Liquid Catalysis Systems

H. Fan, Jingxia Wang, Pingping Wu, Lei Zheng, J. Xiang, Hongliang Liu, B. Han, Lei Jiang
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引用次数: 13

Abstract

Summary Designing superwettable surfaces for enhancing the reaction efficiencies has been being attracted attention. Herein, we report a distinct strategy that hydrophobic bis((trifluoromethyl)sulfonyl)imide (NTf2)-based ionic liquids can endow hydrophobic carbon with superhydrophilicity and superoleophilicity simultaneously via a one-step method in a large scale. Wettability mechanisms demonstrate that superhydrophilicity of the as-prepared carbon is mainly attributed to pyridinic N-oxide from the thermolysis of the NTf2 anion, whereas superoleophilicity of the carbon is provided by the elements C and F. Furthermore, superamphiphilic carbon can greatly eliminate the diffusion resistance thereby enhancing the reaction efficiencies in liquid-liquid systems by rapid enrichment of reactants around catalysts and increasing phase interfacial areas. This work provides a general route to construct superamphiphilic carbon that can greatly enhance the reaction efficiencies.
疏水离子液体将疏水碳调整为超两亲性以降低液-液催化体系中的扩散阻力
设计超可湿表面以提高反应效率一直是人们关注的问题。在此,我们报道了一种独特的策略,即疏水双((三氟甲基)磺酰)亚胺(NTf2)基离子液体可以通过一步法大规模地同时赋予疏水碳超亲水性和超亲油性。润湿性机制表明,制备的碳的超亲水性主要来自于NTf2阴离子热裂解产生的吡啶n -氧化物,而超亲油性主要来自于元素C和f。此外,超两亲性碳可以通过快速富集催化剂周围的反应物和增加相界面面积,极大地消除扩散阻力,从而提高液-液体系的反应效率。本工作为构建超两亲性碳提供了一条通用途径,可大大提高反应效率。
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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