Published: CABEQ 34 (2) (2020) 73–78
Paper type: Original Scientific Paper
F. Strniša, P. Žnidaršič-Plazl and I. Plazl
Abstract
The benefits of continuous processing and the challenges related to the integration
with efficient downstream units for end-to-end manufacturing have spurred the development of efficient miniaturized continuously-operated separators. Membrane-free microseparators with specifically positioned internal structures subjecting fluids to a capillary pressure gradient have been previously shown to enable efficient gas-liquid separation. Here we present initial studies on the model-based design of a liquid-liquid microseparator with pillars of various diameters between two plates. For the optimization of in silico separator performance, mesoscopic lattice-Boltzmann modeling was used. Simulation results at various conditions revealed the possibility to improve the separation of two liquids by changing the geometrical characteristics of the microseparator.
This work is licensed under a Creative Commons Attribution 4.0 International License
Keywords
modeling-based design, liquid-liquid separation, microfluidics, lattice Boltzmann method