DocumentCode :
2527797
Title :
A numerical investigation of combustion parameters in various industrial furnaces
Author :
Scheeringa, Kevin W. ; Zhou, Chenn Q. ; Chang, Shen-Lin
Author_Institution :
Purdue Univ. Calumet, Hammond, IN, USA
fYear :
2004
fDate :
29-31 July 2004
Firstpage :
412
Lastpage :
417
Abstract :
A computational fluid dynamics (CFD) code, developed at Argonne national laboratory to simulate turbulent mixing, combustion reaction, radiation heat transfer, and pollutant kinetics of combustion flow, has been used to study various melting furnaces. The code employs an integral approach to incorporate a lumped combustion reaction model in the flow calculation and a separate hybrid technique to perform pollutant kinetics calculations. The CFD code has been validated with experimental data collected from industrial furnaces and then used for a parametric study of various furnace geometries and operation conditions. The furnace configuration greatly effected the flow property distribution as well as the combustion efficiency. The air injection velocity effected the flow penetration and the species mixing. The injection angle also significantly effected the species mixing. And finally, the equivalence ratio effected the temperature and pollutant concentrations. The study demonstrates that CFD can be a useful tool for analyzing the flow field of the combustion space in industrial furnaces.
Keywords :
aluminium industry; combustion; computational fluid dynamics; furnaces; glass industry; heat radiation; melting; production engineering computing; reaction kinetics; turbulence; Argonne national laboratory; CFD; air injection velocity; combustion efficiency; combustion flow; combustion parameters; combustion reaction; computational fluid dynamics; flow calculation; flow penetration; flow property distribution; industrial furnaces; integral approach; lumped combustion reaction model; melting furnaces; pollutant kinetics; radiation heat transfer; turbulent mixing; Combustion; Computational fluid dynamics; Computational modeling; Environmentally friendly manufacturing techniques; Furnaces; Heat transfer; Industrial pollution; Kinetic theory; Laboratories; Thermal pollution;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Energy Conversion Engineering Conference, 2002. IECEC '02. 2002 37th Intersociety
Print_ISBN :
0-7803-7296-4
Type :
conf
DOI :
10.1109/IECEC.2002.1392065
Filename :
1392065
Link To Document :
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