Through the simultaneous statement of Maxwell’s equations, the turbulent Navier-Stokes equations and the differential thermal energy balance equations a mathematical model has been developed to represent the pool profiles, the velocity fields and the temperature profiles in an ESR system. The major advance over earlier modeling efforts is the fact that the model is capable of predicting the pool profiles from first principles. The theoretically predicted pool profiles and temperature fields were found to be in reasonable agreement with experimental measurements reported by Mellberg for a laboratory scale system. The model is used to investigate the interdependence of key process parameters, with the power input, fill ratio, amount of slag used and the position of the electrode as the independent variables and the casting rate, pool depth, velocity and temperature fields as the dependent variables.
[1]
K. Spells.
A Study of Circulation Patterns within Liquid Drops moving through a Liquid
,
1952
.
[2]
A. Mitchell,et al.
The electrical conductivity of some liquids in the system CaF2+CaO+Al2O3
,
1971
.
[3]
Julian Szekely,et al.
A mathematical model of slag and metal flow in the ESR Process
,
1977
.
[4]
S. Hu,et al.
The fall of single liquid drops through water
,
1955
.
[5]
J. Szekely,et al.
Heat transfer and fluid flow phenomena in electroslag refining
,
1978
.
[6]
A. D. Gosman,et al.
Heat and Mass Transfer in Recirculating Flows
,
1969
.