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Thermodynamical computations for separation of alkali halides and lead oxide from EAF dust

Author:
احد ضابط
,
Wei-Kao Lu
,
Ahad Zabett
Year
: 2005
Abstract: Thermodynamical aspects of a separation process, proposed by authors for removal of volatile species from EAF dust, have been studied. Computations have been performed using FACT program. Different conditions have been considered through calculations of equilibrium state. Effects of different additives and temperature have been determined. Final conditions have been investigated for oxidizing and reducing atmosphere, for inert gas and under different total pressure. It has been found that oxidizing atmosphere helps removal of lead in the form of lead oxide, while reducing condition increases zinc loss due to reduction and evaporation. Higher temperature results in higher vapor pressure of volatile species, but not necessarily in higher amount of removal for volatiles at equilibrium condition. Additives studied had little effect on removal condition. Lower total pressure mainly helps with kinetics of separation process and permits lower temperature operation.
URI: http://libsearch.um.ac.ir:80/fum/handle/fum/3372355
Keyword(s): EAF Dust,Thermodynamical Computations,Alkali Halides,Lead Compounds
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    Thermodynamical computations for separation of alkali halides and lead oxide from EAF dust

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contributor authorاحد ضابطen
contributor authorWei-Kao Luen
contributor authorAhad Zabettfa
date accessioned2020-06-06T13:51:48Z
date available2020-06-06T13:51:48Z
date copyright5/3/2005
date issued2005
identifier urihttp://libsearch.um.ac.ir:80/fum/handle/fum/3372355?locale-attribute=en
description abstractThermodynamical aspects of a separation process, proposed by authors for removal of volatile species from EAF dust, have been studied. Computations have been performed using FACT program. Different conditions have been considered through calculations of equilibrium state. Effects of different additives and temperature have been determined. Final conditions have been investigated for oxidizing and reducing atmosphere, for inert gas and under different total pressure. It has been found that oxidizing atmosphere helps removal of lead in the form of lead oxide, while reducing condition increases zinc loss due to reduction and evaporation. Higher temperature results in higher vapor pressure of volatile species, but not necessarily in higher amount of removal for volatiles at equilibrium condition. Additives studied had little effect on removal condition. Lower total pressure mainly helps with kinetics of separation process and permits lower temperature operation.en
languageEnglish
titleThermodynamical computations for separation of alkali halides and lead oxide from EAF dusten
typeConference Paper
contenttypeExternal Fulltext
subject keywordsEAF Dusten
subject keywordsThermodynamical Computationsen
subject keywordsAlkali Halidesen
subject keywordsLead Compoundsen
identifier linkhttps://profdoc.um.ac.ir/paper-abstract-1008000.html
conference titleThe First Jordanian International Conference of Materials Science and Engineeringen
conference locationAl-Saltfa
identifier articleid1008000
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