Using the methods of statistical physics, the basic kinetic equation describing the dynamics of a polydisperse admixture of solid particles in a dilute dusty-gas flow is derived. Particle rotation, inelastic collisions, and interaction with the carrier gas are taken into account. The basic kinetic equation is used to obtain a Boltzmann-type equation for the one-particle distribution function, for which the boundary conditions for the problem of dusty-gas flow past a body are formulated. On the basis of the kinetic model developed, using direct statistical modeling, the flow patterns and the fields of the dispersed-phase macroparameters in a uniform crosswise dusty-gas flow past a cylinder are obtained for various free-stream particle sizes and concentrations.
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The work received financial support from the Russian Foundation for Basic Research (projects 96-01-01467 and 99-01-00674).
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Volkov, A.N., Tsirkunov, Y.M. Kinetic model of a collisional admixture in dusty gas and its application to calculating flow past bodies. Fluid Dyn 35, 380–392 (2000). https://doi.org/10.1007/BF02697751
- Knudsen Number
- Particle Volume Fraction
- Cylinder Surface
- Restitution Coefficient
- Magnus Force