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Development of the diffusion-inertia model of particle deposition in turbulent flows

Abstract

There is presented a modification of the diffusion-inertia model that describes the distribution and deposition of low-inertia particles in turbulent near-wall flows. For the transport equation of the dispersed phase concentration, there is proposed a new wall function that takes into account the nonequilibrium effects and nonlocality of the turbulent transport of the dispersed phase in the near-wall zone caused by the particles’ inertia. This allowed widening the applicability limits of the diffusion-inertia model even for particles with a relaxation time with a magnitude of several hundred. The calculation results for the rate of the particles’ deposition from the turbulent flow to the walls in a round pipe are in good accord with the literature experimental data and the data of direct numerical simulation.

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Correspondence to D. Ph. Sikovsky.

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Demenkov, A.G., Ilyushin, B.B., Sikovsky, D.P. et al. Development of the diffusion-inertia model of particle deposition in turbulent flows. J. Engin. Thermophys. 18, 39–48 (2009). https://doi.org/10.1134/S1810232809010056

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Keywords

  • Turbulence Kinetic Energy
  • Direct Numerical Simulation
  • Wall Function
  • Turbulent Transport
  • Viscous Sublayer