DocumentCode
619405
Title
Heat transfer mathematical modelling in the cooling systems of impure process gases in copper metallurgy
Author
Milejski, Adam ; Rusinowski, Henryk
Author_Institution
Inst. of Thermal Technol., Silesian Univ. of Technol. Gliwice, Gliwice, Poland
fYear
2013
fDate
26-29 May 2013
Firstpage
245
Lastpage
250
Abstract
Process gases are high temperature by-products of many processes in copper metallurgy. They are heavily dusted and contain combustible components. The basic element in its treatment system is a post combustion chamber localized directly behind the technological furnace. This chamber permits combusting combustible components and precooling the gases with the aid of cooling water and air. Analysis of the processes occurring in the post combustion chamber is important to reduce the system energy consumption. It requires elaborating a mathematical model which describes the most significant physical and chemical phenomena accompanying the post combustion and cooling. The paper presents a mathematical model of the post combustion and cooling the process gases from an electric furnace in a copper plant. This model was elaborated by means of the CFD (Computational Fluid Dynamics) software (Gambit and Fluent). The k-ε Realizable model of turbulence, a single-stage carbon monoxide combustion model and the DO (Discrete Ordinates) model of radiation were used to build it. Numerical simulations were carried out on the basis of the elaborated model for the maximal mass flow of the process gases form the electric furnace. Exemplary calculation results are presented.
Keywords
combustion equipment; computational fluid dynamics; cooling; copper; electric furnaces; heat transfer; heat treatment; metallurgy; numerical analysis; production engineering computing; turbulence; CFD; Cu; combustible components; computational fluid dynamics software; cooling air; cooling water; copper metallurgy; copper plant; electric furnace; energy consumption reduction; gas precooling; heat transfer mathematical modelling; high temperature by-products; impure process gases; mathematical model; numerical simulations; post combustion chamber; radiation DO model; radiation discrete ordinate model; single-stage carbon monoxide combustion model; technological furnace; treatment system; turbulence k-ε realizable model; Boundary conditions; Equations; Iron; Mathematical model; Solids; Water; electric furnace; mathematical modelling; post combustion chamber; process gases;
fLanguage
English
Publisher
ieee
Conference_Titel
Carpathian Control Conference (ICCC), 2013 14th International
Conference_Location
Rytro
Print_ISBN
978-1-4673-4488-3
Type
conf
DOI
10.1109/CarpathianCC.2013.6560547
Filename
6560547
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