Comparison of turbulence models for two-phase flow in a centrifugal separator
Erkin Madaliev, Murodil Madaliev, K. Adilov, T. R. Pulatov
Abstract
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Erkin Madaliev, Murodil Madaliev, K. Adilov, T. R. Pulatov
Abstract
Open-access reader
The numerical results of mathematical modeling of a two-phase, axisymmetric swirling turbulent flow in the separation zone of a centrifugal separator are presented. The movement of the carrier gas flow was modeled using RANS, which were closed using the SARC turbulence models, the SST-RC model, and the SSG/LRR-RSM-w2012 model. For the numerical solution of the problem, the SIMPLE algorithm was used. The article compares the results of numerical calculation of turbulence models. The results of a comparison of numerical calculations with allowance for the effect of the solid phase on the dynamics of the air medium and without taking it into account with experimental data are presented.
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The numerical results of mathematical modeling of a two-phase, axisymmetric swirling turbulent flow in the separation zone of a centrifugal separator are presented. The movement of the carrier gas flow was modeled using RANS, which were closed using the SARC turbulence models, the SST-RC model, and the SSG/LRR-RSM-w2012 model. For the numerical solution of the problem, the SIMPLE algorithm was used. The article compares the results of numerical calculation of turbulence models. The results of a comparison of numerical calculations with allowance for the effect of the solid phase on the dynamics of the air medium and without taking it into account with experimental data are presented.
Key concepts: Turbulence, Mechanics, Reynolds-averaged Navier–Stokes equations, Separator (oil production), K-epsilon turbulence model, K-omega turbulence model, Turbulence modeling, Rotational symmetry