CHAPTER 6:Bicontinuous Emulsions Stabilized by Colloidal Particles

J. Tavacoli, J. H. Thijssen, P. Clegg
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引用次数: 6

Abstract

The liquid–liquid phase separation of binary fluids, induced by a temperature quench, can be arrested by colloidal particles trapped at the interface. The arrested structure, a novel soft solid known as a bicontinuous interfacially jammed emulsion gel (bijel), was first predicted by computer simulations and subsequently realized in the lab. Initially the mechanical properties are controlled by the interfacial tension between the two fluid domains (e.g. a deeper quench yields a stronger bijel) and the volume fraction of particles. Reversing the temperature quench results in the two fluids becoming miscible again. Whether or not this leaves a colloidal gel in place which is stable without a liquid–liquid interface (a ‘monogel’) depends on the age of the gel and the choice of liquids. In this chapter we describe the current state of bijel research using experimental, theoretical and computational approaches. We discuss possible areas of application and, finally, we contrast the physical route with which the bijel is prepared with a related material that is prepared via direct particle–particle interactions.
第六章:由胶体颗粒稳定的双连续乳剂
由温度淬火引起的二元流体的液-液分离可以被界面处的胶体颗粒所阻止。这种阻滞结构是一种新型的软固体,被称为双连续界面堵塞乳液凝胶(bijel),最初是通过计算机模拟预测的,随后在实验室中实现。最初,力学性能是由两个流体域之间的界面张力(例如,更深的淬火产生更强的bijel)和颗粒的体积分数控制的。逆转温度淬火导致两种流体再次混溶。这是否会留下一个没有液-液界面的稳定的胶体凝胶(“单凝胶”)取决于凝胶的年龄和液体的选择。在本章中,我们用实验、理论和计算方法描述了bijel研究的现状。我们讨论了可能的应用领域,最后,我们对比了通过直接粒子-粒子相互作用制备的相关材料制备bijel的物理路线。
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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