%0 Journal Article
%@ 01932691
%A Yekeen, N.
%A Manan, M.A.
%A Idris, A.K.
%A Samin, A.M.
%A Risal, A.R.
%D 2018
%F scholars:10330
%I Taylor and Francis Inc.
%J Journal of Dispersion Science and Technology
%K Emulsification; Flow of fluids; Foams; Glass; Interfaces (materials); Mechanisms; Nanoparticles; Silica; Surface active agents, Dominant mechanism; Flow process; Liquid interface; Mechanistic studies; Oil wets; Pore-level mechanisms; Surfactant foams; Water-wet systems, Phase interfaces
%N 5
%P 623-633
%R 10.1080/01932691.2017.1378581
%T Mechanistic study of nanoparticles�surfactant foam flow in etched glass micro-models
%U https://khub.utp.edu.my/scholars/10330/
%V 39
%X This study was conducted in order to identify the pore-level mechanisms controlling the nanoparticles�surfactant foams flow process and residual oil mobilization in etched glass micro-models. The dominant mechanism of foam propagation and residual oil mobilization in water-wet system was identified as lamellae division and emulsification of oil, respectively. There was inter-bubble trapping of oil and water, lamellae detaching and collapsing of SDS-foam in the presence of oil in water-wet system and in oil-wet system. The dominant mechanisms of nanoparticles�surfactant foam flow and residual oil mobilization in oil-wet system were the generation of pore spanning continuous gas foam. The identified mechanisms were independent of pore geometry. The SiO2-SDS and Al2O3-SDS foams propagate successfully in water-wet and oil-wet systems; foam coalescence was prevented during film stretching due to the adsorption and accumulation of the nanoparticles at the gas�liquid interface of the foam, which increased the films� interfacial viscoelasticity. © 2017 Taylor & Francis.
%Z cited By 10