Numerical simulation of gas-solid two-phase flow in a veritical pipe. On the effect of particle-to-particle collision).
Toshitsugu Tanaka, Keiichiro Kadono, Yutaka Tsuji
Abstract
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Toshitsugu Tanaka, Keiichiro Kadono, Yutaka Tsuji
Abstract
Open-access reader
Fully developed gas-solid two-phase flow in a vertical pipe was simulated numerically, and solid concentrations and velocities were predicted. Particle motion in a pipe which has periodic boundaries on the inlet and the outlet was solved, taking into consideration particle-to-particle collisions. To investigate the effects of particle-to-particle collision on the particle flow, simulations were performed. It was found that particle-to-particle collisions have a large effect on the diffusion of particles in a pipe cross section even at a small concentration. The predicted solid concentrations and velocity profiles agreed well with the experimental results.
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Fully developed gas-solid two-phase flow in a vertical pipe was simulated numerically, and solid concentrations and velocities were predicted. Particle motion in a pipe which has periodic boundaries on the inlet and the outlet was solved, taking into consideration particle-to-particle collisions. To investigate the effects of particle-to-particle collision on the particle flow, simulations were performed. It was found that particle-to-particle collisions have a large effect on the diffusion of particles in a pipe cross section even at a small concentration. The predicted solid concentrations and velocity profiles agreed well with the experimental results.
Key concepts: Particle (ecology), Mechanics, Collision, Flow (mathematics), Two-phase flow, Inlet, Magnetosphere particle motion, Particle velocity