Zinc Vaporization and Self-reduction Behavior of Industrial Waste Residues for Recycling to the HIsarna Furnace

Within the steelmaking industry, a large amount of zinc-bearing waste is produced which cannot be effectively treated through integrated steel mills. Concurrently, zinc smelters generate waste residues containing significant amounts of iron and zinc which are stored or landfilled. The zinc concentra...

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Veröffentlicht in:Journal of sustainable metallurgy 2022-06, Vol.8 (2), p.658-672
Hauptverfasser: Kerry, Timothy, Peters, Alexander, Georgakopoulos, Evangelos, Dugulan, Iulian, Meijer, Koen, Hage, Johannes, Offerman, Erik, Yang, Yongxiang
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container_issue 2
container_start_page 658
container_title Journal of sustainable metallurgy
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creator Kerry, Timothy
Peters, Alexander
Georgakopoulos, Evangelos
Dugulan, Iulian
Meijer, Koen
Hage, Johannes
Offerman, Erik
Yang, Yongxiang
description Within the steelmaking industry, a large amount of zinc-bearing waste is produced which cannot be effectively treated through integrated steel mills. Concurrently, zinc smelters generate waste residues containing significant amounts of iron and zinc which are stored or landfilled. The zinc concentration of iron and steelmaking residues inhibits its recycling to the blast furnace but is insufficient to be sent directly to the zinc producers. Consequently, a means of up-concentration is required. The pilot HIsarna ironmaking furnace has shown potential for processing secondary iron-bearing resources. Furthermore, zinc can be concentrated in the off-gas flue dust, providing an enriched input for zinc smelters. The potential recyclability of blast furnace (BF) and basic oxygen furnace (BOF) dust and ‘goethite’ residue from the zinc industry has been studied. The input materials have been comprehensively characterized and their reduction–vaporization behavior, has been investigated. Individual samples were tested at temperatures of up to 1300 °C. Here, it was shown that minimal reduction of iron and volatilization of zinc occurred in the goethite and BOF samples. Conversely, even at 1000 °C, the BF dust showed complete reduction of iron and removal of zinc within 30 min. This was due to its high carbon content (40 wt%) which can act as a reductant. Consequently, mixtures of BOF dust and goethite with BF dust were studied. It has been shown that mixtures of 30:70 BF dust to goethite and 20:80 BF dust to BOF dust are suitable for recovering zinc to the gas phase and fully reducing the contained iron. Graphical Abstract
doi_str_mv 10.1007/s40831-021-00440-5
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subjects Basic converters
Blast furnace gas
Blast furnace iron mixers
Carbon content
Dust
Earth and Environmental Science
Environment
Flue dust
Industrial wastes
Iron and steel making
Iron and steel plants
Ironmaking
Metallic Materials
Mixtures
Oxygen steel making
Recyclability
Reducing agents
Research Article
Residues
Smelters
Sustainable Development
Vapor phases
Vaporization
Zinc
title Zinc Vaporization and Self-reduction Behavior of Industrial Waste Residues for Recycling to the HIsarna Furnace
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