Particle Concentrations in High Mach Number, Two-Phase Flows
K. D. Korkan, S. L. Petrie, R. J. Bodonyi
Abstract
K. D. Korkan, S. L. Petrie, R. J. Bodonyi
Abstract
An experimental and theoretical study of the behavior of solid particles in high speed flow systems has been conducted. A new drag coefficient correlation which allows greater accuracy in the prediction of particle trajectories over a wide range of slip Mach number and slip Reynolds number was formulated. A variety of basic two-phase flow situations, i.e., uniform flow, Prandtl-Meyer expansion, and oblique shock, was investigated by varying the initial particle velocity and particle radius. In addition, the effect of different gases and different particles on the two-phase flow characteristics was investigated, and significant differences were noted. The exploratory experimental studies conducted in this investigation substantiate that a test facility suitable for the study of particle trajectories has been developed and that accurate particle concentration profiles can be obtained with the laser scattering technique.
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An experimental and theoretical study of the behavior of solid particles in high speed flow systems has been conducted. A new drag coefficient correlation which allows greater accuracy in the prediction of particle trajectories over a wide range of slip Mach number and slip Reynolds number was formulated. A variety of basic two-phase flow situations, i.e., uniform flow, Prandtl-Meyer expansion, and oblique shock, was investigated by varying the initial particle velocity and particle radius. In addition, the effect of different gases and different particles on the two-phase flow characteristics was investigated, and significant differences were noted. The exploratory experimental studies conducted in this investigation substantiate that a test facility suitable for the study of particle trajectories has been developed and that accurate particle concentration profiles can be obtained with the laser scattering technique.
Key concepts: Mach number, Particle (ecology), Phase (matter), Environmental science, Mechanics, Physics, Meteorology, Atmospheric sciences