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A.F., I., I.I, I., G.V., S., & A.N., K. (2020). Using of Enriched Air Blast While Operation of Shaft Furnaces at LLC “Mednogorsk Copper-Sulfur Plant”. KnE Materials Science, 6(1), 409–417. https://doi.org/10.18502/kms.v6i1.8118

https://doi.org/10.18502/kms.v6i1.8118

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authors

  • Ibragimov A.F.

    Ibragimov A.F.

    LLC “Mednogorsk Copper-Sulfur Plant”, Mednogorsk, Russia
  • Iskhakov I.I

    Iskhakov I.I

    LLC “Mednogorsk Copper-Sulfur Plant”, Mednogorsk, Russia
  • Skopov G.V.

    Skopov G.V.

    “UMMC-Holding” Corp., Verkhnyaya Pyshma, Sverdlovsk region, Russia
  • Kirichenko A.N.

    Kirichenko A.N.

    LLC “Mednogorsk Copper-Sulfur Plant”, Mednogorsk, Russia

Published Date

  • Dec 31, 2020

Using of Enriched Air Blast While Operation of Shaft Furnaces at LLC “Mednogorsk Copper-Sulfur Plant”

KnE Materials Science / IV Congress “Fundamental Research and Applied Developing of Recycling and Utilization Processes of Technogenic Formations” Volume 2020 / Pages 409–417

Abstract




In this article we consider the practices of blast smelting of copper-bearing charge with oxygen enriched air blast at Mednogorsk Copper-Sulfur Plant. The degree of air blast enrichment with oxygen has been increased from 30% to 36%, and productivity has raised by 20.1%. The copper content in matte has made up 33.0-35.3%, in dump slag – to 0.5% Cu. We have provided the mass and heat balances of the smelting. We have demonstrated the influence of air blast oxygen enrichment degree on productivity of blast smelting, solid fuel consumption, contents and quantity of smelting products.





Keywords: blast smelting, air blast, oxygen enriched, enrichment degree, furnace capacity, specific smelting rate, matte, anthracite







References
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[2] Pigarev, A. D. (1977). Copper Sulfur Production. Moscow: Metallurgy, p. 120.

[3] Ushakov, K. I., Felman, R. I. and Sadykov, V. I. (1981). Blast Smelting of Sulfide Raw Materials and Process Improvement. Moscow: Metallurgy, p. 152.

[4] Volkhin, A. I., Eliseev, E. I. and Zhukov, V. P. (2004). Blister Copper and Sulfuric Acid. Chelyabinsk: Printing Association, p. 378.

[5] Skopov, G. V. (1991). Theoretical Foundations and Practice in Autogenous Blast Smelting of Sulfide Pellets and Clinker from Zinc Production using Oxygen-Enriched Blast. (Ph.D. dissertation, Ural Polytechnic Institute named after S.M. Kirov, 1991).

[6] Kharitidi, G. P., Skopov, G. V. and Kolmachikhin V. N. (1991). Low-Waste Zinc Clinker Processing at the Ural Copper Smelters. Nonferrous metals, issue 4, pp. 5-7.