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Tytuł artykułu

Beneficiation of arsenic bearing complex sulphide ore by flotation

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
In this study beneficiation of a sulphide ore from the Gümüşhane-Black Sea Region of Turkey was investigated. Detailed flotation studies were carried out with the ore sample which contained 2.95% Pb, 6.72% Zn and 0.32% Cu. Mineralogical analyses showed that the sample includes pyrite, galena, sphalerite, chalcopyrite, tennantite, cerussite, anglesite and smithsonite. On the other hand, hematite, goethite, limonite, calcite and quartz were determined as gangue minerals. Selective sulphide concentrates with low arsenic content were tried to be produced by froth flotation. Individual concentrates of Pb, Zn and Cu assayed 67.54% Pb, and 61.49% Zn and 23.31% Cu where corresponding recoveries were 73.0% and 77.1% and 38.7%, respectively. Arsenic contents were less than 2000 ppm in the lead and zinc con-centrates. Copper concentrate assayed 5.03% As since the major copper minerals were in tennantite form (copper arsenic sulphide mineral). In flotation tests, non-toxic reagents such as metabisulphite, caustified starch, and activated carbon were used to depress minerals in relevant circuits.
Słowa kluczowe
Rocznik
Strony
203--212
Opis fizyczny
Bibliogr. 27 poz., rys., tab.
Twórcy
autor
  • Istanbul Technical University, Mining Faculty, Mineral Processing Division, Ayazağa, Istanbul, Turkey
autor
  • Istanbul Technical University, Mining Faculty, Mineral Processing Division, Ayazağa, Istanbul, Turkey
  • Istanbul Technical University, Mining Faculty, Mineral Processing Division, Ayazağa, Istanbul, Turkey
Bibliografia
  • 1. BENZAAZOOUA M., MARION P., LIOUVILLE-BOURGEOIS L., JOUSSEMET R., HOUOT R., FRANCO A., PINTO A., 2002, Mineralogical distribution of some minor and trace elements during a laboratory flotation processing of Neves-Corvo ore (Portugal), International Journal of Mineral Processing, 66, No. 1–4, 163.
  • 2. BICAK O., EKMEKCI Z., 2005, Polisakkaritlerin flotasyonda bastırıcı olarak kullanımı ve soğurum mekanizmaları, Madencilik, 44, No. 1, 19 (In Turkish).
  • 3. BRUCKARD W.J., DAVEY K.J., JORGENSEN F.R.A., WRIGHT S., BREW D.R.M., HAQUE N., VANCE E. R., 2010, Development and evaluation of an early removal process for the beneficiation of arsenic-bearing copper ores, Mining Engineering, 23, No. 15, 1167.
  • 4. BULATOVIC S., WYSLOUZIL D.M., 1995, Selection and evaluation of different depressants systems for flotation of complex sulphide ores, Minerals Engineering, 8, No. 1–2, 63.
  • 5. BULATOVIC S.M., 2007, Handbook of flotation reagents, chemistry. theory and practice, flotation of sulfide ores, Elsevier, Amsterdam.
  • 6. CHANDRA A.P., GERSON A.R., 2009, A review of the fundamental studies of the copper activation mechanism for selective flotation of sulfide minerals, sphalerite and pyrite, Advances in Colloid and Interface Science, 145, 97.
  • 7. Cytec mining chemical handbook, 2002, Horton Printing Company, Meriden.
  • 8. FINKELSTEIN N.P., 1997, The activation of sulphide minerals for flotation: a review, International Journal of Mineral Processing, 52, No. 2–3, 81.
  • 9. FORNASIERO D., FULLSTON C.L., RALSTON J., 2001, Separation of enargite and tennantite from non-arsenic copper sulfide minerals by selective oxidation or dissolution, International Journal of Mineral Processing, 61, No. 2, 109.
  • 10. GRANO S.R., SOLLAART M., SKINNER W., PRESTIDGE., RALSTON J., 1997, Surface modifica-tions in the chalcopyrite-sulphite ion system. I. collectorless flotation, XPS and dissolution study, In-ternational Journal of Mineral Processing, 50, No. 1–2, 1.
  • 11. GRANO S.R., JOHNSON N.W., RALSTON J., 1997a, Control of the solution interaction of meta bisul-phite and ethyl xanthate in the flotation of the Hilton ore of Mount Isa Mines Limited, Australia, Min-eral Engineering, 10, No. 1, 17.
  • 12. GRANO S.R., PRESTIDGE C.A., RALSTON J., 1997b, Solution interaction of ethyl xanthate and sul-phite and its effect on galena flotation and xanthate adsorption, International Journal of Mineral Pro-cessing, 52, 161.
  • 13. GÜL A., 2007, The role of Na2S2O5 and activated carbon on the selective flotation of chalcopyrite from a copper ore usıng a dithiophosphine-type collector, Mineral Processing, Extractive Metal.Rev., 28, 235.
  • 14. GÜL A., YÜCE A.E., SIRKECI A.A., OZER M., 2008, Use of non-toxic depressants in the selective flotation of copper lead-zinc ores, Canadian Metallurgical Quarterly, 47, No. 2, 111.
  • 15. JAHANSHAHI S., BRUCKARD W.J., CHEN C., JORGENSEN F.R.A., 2006, Management of minor elements in the production of basemetals, in: Green Processing 2006, 3rd International Conference on the Sustainable Processing of Minerals, Newcastle, Australia, The Australasian Institute of Mining and Metallurgy, Melbourne, 2006, 25.
  • 16. KHMELEVA T.N., BEATTIE D.A., GEORGIEV T.V., SKINNER W.M., 2003, Surface study of the effect of sulphite ions on copper-activated pyrite pre-treated with xanthate, Mineral Engineering, 16, 601.
  • 17. KHEMELEVA T.N., SKINNER W.M., BEATTIE D.A., 2005, Depression mechanisms of sodium bisul-phite in the xanthate-collectorless flotation of copper activated sphalerite, International Journal of Mineral Processing, 76, 43.
  • 18. KHEMELEVA T.N., CHAPELET J.K., SKINNER W.M., BEATTIE D.A., 2006, Depression mecha-nisms of sodium bisulphite in the xanthate-induced flotation of copper activated sphalerite, Interna-tional Journal of Mineral Processing, 79, 61.
  • 19. LASKOWSKI J.S., LIU Q., BOLIN N.J., 1991, Polysaccharides in flotation of sulphides. Part 1. Adsorp-tion of polysaccharides onto mineral surfaces, International Journal of Mineral Processing, 33, No. 1–4, 223.
  • 20. LASKOWSKI J.S., LIU Q., O’CONNOR T., 2007, Current understanding of the mechanism of polysac-charide adsorption at the mineral /aqueous solution interface, International Journal of Mineral Pro-cessing, 84, 59.
  • 21. LIU Q., ZHANG Y., LASKOWSKI J. S., 2000, The adsorption of polysaccharides onto mineral surfac-es: an acid/base interaction, International Journal of Mineral Processing, 60, p. 229.
  • 22. MA X., BRUCKARD W.J., 2009, Rejection of arsenic minerals in sulfide flotation — A literature review, International Journal of Mineral Processing, 93, No. 2,1, 89.
  • 23. MANDAL B. K., SUZUKI K. T., 2002, Arsenic round the worlds: a review, Talanta, 58, 201.
  • 24. SASAKI K., TAKATSUGI K., ISHIKURA K., HIRAJIMA T., 2010, Spectroscopic study on oxidative dissolution of chalcopyrite, enargite and tennantite at different pH values, Hydrometallurgy 100, 144.
  • 25. SHEN W.Z., FORNASIERO D., RALSTON J., 2001, Flotation of sphalerite and pyrite in the presence of sodium sulfite, International Journal of Mineral Processing, 63, No. 1, 17.
  • 26. SMITH L.K., BRUCKARD W. J., 2007, The separation of arsenic from copper in a Northparkes cop-per–gold ore using controlled-potential flotation, International Journal of Mineral Processing, 84, 15.
  • 27. YAMAMOTO T., 1980, Mechanism of depression of pyrite and sphalerite by sulphite, Complex sulphide ores, ed. M. J. Jones, London, Institute of Mining and Metallurgy, 71.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-35ef0fc1-5dd0-41ac-98e2-f7e5aa16ab8c
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