QIAN Lijuan, LIN Jianzhong, and XIONG Hongbing. Simulation of Droplet-gas Flow in the Effervescent Atomization Spray with an Impinging Plate[J]. , 2009, 17(1): 8-19.
DOI:
QIAN Lijuan, LIN Jianzhong, and XIONG Hongbing. Simulation of Droplet-gas Flow in the Effervescent Atomization Spray with an Impinging Plate[J]. , 2009, 17(1): 8-19.DOI: 10.1016/S1004-9541(09)60026-4.
Simulation of Droplet-gas Flow in the Effervescent Atomization Spray with an Impinging Plate
A comprehensive three-dimensional model of droplet-gas flow was presented to study the evolution of spray in the effervescent atomization spray with an impinging plate.For gas phase
the N-S equation with the
k-ε
turbulence model was solved
considering two-way coupling interaction between droplets and gas phase.Dispersed droplet phase is modeled as Lagrangian entities
accounting for the physics of droplet generation from primary and secondary breakup
droplet
collision and coalescence
droplet momentum and heat transfer.The mean size and statistical distribution of atomized droplets at various nozzle-to-plate distances were calculated.Some simulation results were compared well with experimental data.The results show that the existence of the impinging plate has a pronounced influence on the droplet mean size
size distribution and the droplet spatial distribution.The air-to-liquid ratio has obvious effects on the droplet size and distribution.
Abstract
A comprehensive three-dimensional model of droplet-gas flow was presented to study the evolution of spray in the effervescent atomization spray with an impinging plate.For gas phase
the N-S equation with the
k-ε
turbulence model was solved
considering two-way coupling interaction between droplets and gas phase.Dispersed droplet phase is modeled as Lagrangian entities
accounting for the physics of droplet generation from primary and secondary breakup
droplet collision and coalescence
droplet momentum and heat transfer.The mean size and statistical distribution of atomized droplets at various nozzle-to-plate distances were calculated.Some simulation results were compared well with experimental data.The results show that the existence of the impinging plate has a pronounced influence on the droplet mean size
size distribution and the droplet spatial distribution.The air-to-liquid ratio has obvious effects on the droplet size and distribution.
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