TY - JOUR
T1 - Simulation of droplet heating and desolvation in an inductively coupled plasma
AU - Levin Fliflet, Deborah
AU - Benson, C. M.
AU - Gimelshein, S. F.
AU - Montaser, A.
PY - 2002
Y1 - 2002
N2 - The total desolvation rate of sample droplets in an inductively coupled plasma (ICP) is investigated through the development of a two-phase flow computer model. The model uses the Direct Simulation Monte Carlo method for time-dependent studies of aerosol number density, droplet size, droplet temperature, and droplet velocity as a function of axial and radial distance from the nebulizer nozzle, the nebulizer dimensions, carrier gas flow rates, and solution uptake rates. The desolvation model is supplemented by equations used to determine the trajectories of particles through the plasma. The effect of coalescence following droplet-droplet collisions is also considered, as well as the effect of high Knudsen number environments on the desolvation and transport of the aerosol.
AB - The total desolvation rate of sample droplets in an inductively coupled plasma (ICP) is investigated through the development of a two-phase flow computer model. The model uses the Direct Simulation Monte Carlo method for time-dependent studies of aerosol number density, droplet size, droplet temperature, and droplet velocity as a function of axial and radial distance from the nebulizer nozzle, the nebulizer dimensions, carrier gas flow rates, and solution uptake rates. The desolvation model is supplemented by equations used to determine the trajectories of particles through the plasma. The effect of coalescence following droplet-droplet collisions is also considered, as well as the effect of high Knudsen number environments on the desolvation and transport of the aerosol.
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M3 - Article
AN - SCOPUS:0036361140
SN - 0730-9244
SP - 134
JO - IEEE International Conference on Plasma Science
JF - IEEE International Conference on Plasma Science
ER -