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首页> 外文期刊>Journal of Dispersion Science and Technology >Numerical simulation of double emulsion formation in cross-junctional flow-focusing microfluidic device using Lattice Boltzmann method
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Numerical simulation of double emulsion formation in cross-junctional flow-focusing microfluidic device using Lattice Boltzmann method

机译:用格子Boltzmann方法对二乳液形成微流体装置双乳液形成的数值模拟

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This paper presents an analysis of double emulsion formation through a cross junctional flow-focusing microchannel which uses an improved color gradient lattice Boltzmann method. The model with the potential to simulate a ternary system of immiscible fluids was employed. Two double emulsion formation regimes, one-step and two-step, were simulated. The effect of the inner flow rate, as well as inner and outer flow viscosity was investigated on double emulsion formation. The inner flow rate had a significant influence on the inner liquid jet detachment point in the two-step process. However, the viscosity of the inner and outer fluid considerably affected the double jet detachment point in the one-step formation. The shell thickness of a double emulsion can be adjusted by altering the inner flow rate.
机译:本文介绍了通过交叉连接流动聚焦微通道进行双乳液形成的分析,该微通道采用改进的彩色梯度晶格Boltzmann方法。 采用具有模拟不混溶流体三元系统的潜力的模型。 模拟了两种双重乳液形成制度,一步和两步。 在双乳液形成上研究了内流率以及内部和外流粘度的效果。 内部流速对两步过程中内部液体喷射脱离点的影响有显着影响。 然而,内部和外部流体的粘度显着影响了一步形成中的双射流脱离点。 可以通过改变内流量来调节双乳液的壳厚度。

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