Sulfur Elimination in Updraft Lead Sintering — A Thermochemical Model
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OpenAlex topics: Metallurgical Processes and Thermodynamics · Powder Metallurgy Techniques and Materials · Iron and Steelmaking Processes
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References (9)
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1. George W. Healy, A Thermochemical Model of the Sintering of Lead Concentrates, final report, U.S. Bureau of Mines Contract No. GO 264027, February 29, 1980.
2. T.R.A. Davey and G.M. Willis, “Annual Review: Commodity Metals - Lead, Zinc and Tin,” J. Metals 30 (4) (1978) p. 12–19.
3. C.H. Cotterill and J.M. Cigan, Editors, Extractive Metallurgy of Lead and Zinc, Vol. II, AIME, New York, 1970. Chapter 24, “The Herculaneum Smelter of St. Joe Minerals Corporation,” by D.H. Beilstein, p. 702–737; Chapter 25, “The Buick Smelter of Amax-Homestake Lead Tollers,” by F.W. Gibson, p. 738–776; Chapter 26, “The Glover Smelter and Refinery of ASARCO,” by R.B. Paul, p. 778–789; and Chapter 27, “Lead Smelting and Refining and Slag Fuming at the Broken Hill Associated Smelters Pty. Ltd.,” by G.C. Hancock, D.H. Hart, and L.A.H. Pelton, p. 790–823.
4. H.H. Kellogg and S.K. Basu, “Thermodynamic Properties of the System Pb-S-O to 1100K,” Trans. TMS-AIME 218 (1960) p. 70–81.
5. J.R. Tuffley and B. Russell, “Sulfate Formation During the Roasting of Lead Sulfide,” Trans. TMS-AIME 230, (1964) p. 950–961.
6. W.M. Dressel, E.R. Cole, Jr., P.G. Barnard, and W.C. Clinton, Composition of Lead Sinter, U.S. Bureau of Mines R.I. 8059, 1975.
7. T.J. O’Keefe, C. Bennett, and E.R. Cole, “A Microscopy Study of Lead Sinter,” Met. Trans. 5 (1974) p. 424–432.10.1007/BF02644110 ↗
8. G.H. Geiger and D.R. Poirier, Transport Phenomena in Metallurgy; Chapter 6.2, “Thermal Conductivity of Gases,” p. 185–187; Chapter 12.3, “Heat Transfer in Packed Beds,” p. 412–413., Chapter 13-5, “Diffusion in Gases,” p. 463–467.
9. George W. Healy, U.S. Patent applied for.