Abstract
Over the course of Dr. Robertson’s career, the ferrous and non-ferrous plants have seen enormous changes in technology and increases in plant capacity, essentially amounting to a “technological revolution”. In iron and steel, the “mega” blast furnace of some 6,000 m3 working volume is now standard (~10,000 tonnes (mt) of pig iron/day). Similar huge changes in process technology and plant size have occurred in the non-ferrous industry. As an example, the fuel-fired reverberatory furnace, once the mainstay of the copper industry, has disappeared — replaced by large capacity flash and bath smelting technologies. The energy consumption per unit mass of metal produced has also been reduced considerably. Our understanding of the thermodynamics and mechanisms of metallurgical reactions, a field to which Dr. Robertson has significantly contributed, has made great strides. This paper reviews these changes with particular reference to the copper smelting industry, providing also comments on expected future trends.
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References
M. Naito, “The Development of Iron Making Technology” (Nippon Steel Technical Report, No. 94, June 2006), http://www.nssmc.com /en/tech/report/nsc/pdf/n9402.pdf
P. J. Mackey, “Copper Smelting Technologies in 2013 and Beyond”(Paper to be presented at Copper 2013, Santiago, Chile, December 2013, The Chilean Institute Mining Engineers, 2013).
C. Diaz, H. Schwarze and J. Taylor, “The changing landscape of copper smelting in the Americas”, in Copper 95–Cobre 95, Vol. IV: Pyrometallurgy of Copper, W.J. (Pete) Chen et al., Eds., (Montreal, Québec, Canada: MetSoc of CIM, 1995) 3–28.
M. Eissler, The Hydro-Metallurgy of Copper (New York: D.Van Nostrand Company, 1902), 9–10.
F. Laist, “History of Reverberatory Smelting in Montana 1879 to 1933”, Trans. TMS-AIME (Special Volume on Copper Metallurgy), 105 (1933), 23–87.
P.Tarassoff and P.J. Mackey, “The Changing Face of Copper Pyrometallurgy” (Paper presented at the 22nd Chemical Engineering Conference, CSChE, Toronto, Ontario, Canada, September, 1972), 17–20.
W.B. Boggs, J.N. Anderson and W.J. Stevens, “The Noranda Smelter from 1939 to 1945”, Trans. Canadian Institute Mining and Metallurgy, XLVIII (1945), 402–428.
J.N. Anderson, “Reverberatory Furnace Practice at Noranda”, Trans. AIME, 200 (1954), 745–758.
W.B. Eastwood, J.S. Thixton and T.M. Young, “Recent Developments in the Smelting Practice on Nchanga Consolidated Copper Mines Rokana Smelter” (Paper presented at the AIME Annual Meeting, 1975), Paper No. A71–75.
W.F. Cartwright, “The Growth of Unit Output and its Effect on Works Planning and Management”, Journal of the Iron and Steel Institute (London), 207 (Part 6) (June 1969), 729–738.
A. Barnes, P.J. Mackey and G.R.F. Alvear F., “Process Development and Growth of Non-Ferrous Metals Production — The Role of Pilot Plants” (Plenary Paper delivered to EMC 2009, June 28 to July 1, 2009, Innsbruck, Austria).
International Copper Study Group (ICSG), The World Copper Fact Book, (Lisbon, Portugal: The ICSG, 2012). Website: www.icsg.org
T. Lehner and J. Wildund, “The New Ronnskar Smelter”, in Proceedings of EMC 2001, Friedrichshafen, Germany, 18 to 21 September, (Clausthal-Zellerfeld, Germany: GDMB, 2001), 49–59.
P.J. Mackey and J.E. Nesset, “The Impact of Commissioning and Start-up Performance on a Mining/Metallurgical Project”, paper presented to the 35 thAnnual Meeting of The Canadian Mineral Processors, S. Wilson, Ed., Ottawa, Ontario, Canada, 21–23 January (The Canadian Institute of Mining, Metallurgy and Petroleum, 2003), 331–347.
Glencore Inc., Presentations at Investor Day, 10 September, 2013, http://www.glencorexstrata.com /assets/Investors/InvestorDay2013/GLEN-Investor-Day-2013-Complete-mll.pdf
Sherritt Inc., Company presentations, www.sherritt.com , also, http://www.sherritt.com /getattachmeniycd41b967-c0de-4566-b8cc-1328119dcc0f/Sherrit-Investor-Day-Presentation-Avail-868055.
R. Holroyd, “Ultra Large Single Stream Chemical Plants: Their Advantages and Disadvantages”, Chemistry and Industry, August 5 (1967), 1310–1315.
Outotec Oy Press Release, Outotec to Deliver Copper Flash Smelting and Flash Converting Technology to China, 2011.
A.E. Wraith, C.L. Harris and P.J. Mackey, “On Factors Affecting Tuyere Flow and Splash in Converters and Bath Smelting Reactors”, in From Agricola to the Present — A Meeting Between East and East: Responsibility for the Future — Metallurgy I, EMC 94, Freiberg — Dresden, Germany, June 1994, (Clausthal-Zellerfeld, Germany: GDMB, 1994) 50–78.
L. Mariscal S. and W. Torres P., “Modernization and Start-up of the SPCC Ilo Smelter”, in Copper 2007–Cobre 2007, The Carlos Diaz Symposium on Pyrometallurgy, Vol. III, Book 2, Eds. A.E.M. Warner, C.J. Newman, A. Vahed, D.B. George, P.J. Mackey and A. Warczok, Toronto, Ontario, Canada, August (Montreal, Quebec, Canada: The Metsoc of CIM, 2007), 193–202.
G.R.F. Alvear, F. P. Arthur and P. Partington, “Feasibility to Profitability with Copper ISASMELTTM”, in Proceedings of Copper 2010, June 6 to 10, Hamburg, Germany, Volume 2-Pyrometallurgy I (Clausthal-Zellerfeld, Germany: GDMB, 2010), 615 to 630.
P. Coursol, P.J. Mackey and C. Diaz, “Energy Consumption in Copper Sulphide Smelting”, Proceedings of Copper 2010, June 6–10, Hamburg, Germany, Volume 2-Pyrometallurgy I, (Clausthal-Zellerfeld, Germany: GDMB, 2010), 649–668.
S. Wallner, A. Filzwieser and J. Kleicker, “Some Aspects for the Use of Water Cooled Furnace Walls” (Report by RHI aG, Vienna, Austria). http://www.mettop.com /mediacache/22watercooled_furnace_walls_water_the_best_refl53004.pdf
A. Weidner, “Refractory Lining of Flash-Smelting Furnaces”, (Paper presented at the 104th AIME Annual Meeting, 1975), Paper No. A75–69.
J.B.W. Bailey and G.C. Balfour, “Refractory Practice for the Noranda Process”, (Paper Presented at the 109th AIME Annual Meeting, Las Vegas, Nevada, USA, Feb. 24–28 1980).
N. Voermann, et al., “Furnace Cooling Design for Modern High-Intensity Pyrometallurgical Processes”, in Proceedings of the Copper 99 — Cobre 99 International Conference, October, Vol. V, Phoenix, Arizona, U.S.A., (Metsoc of CIM-TMS, 1999) 573–582.
I.A. Cameron, R. Sriram and F. Ham, “Electric Furnace Matte Tap Hole Developments at Falconbridge Inc.”, CIM Bulletin, June (1995), (Montreal, Quebec, Canada: CIM), 102–108.
C.A. Snyders, J.J. Eksteen and A. Moshokwa, “The Polokwane Smelter Matte Tapping Channel Model”, (Paper presented at Fifth International Conference on CFD in the Process Industries, CSIRO, Melbourne, Australia, 13–15 December, 2006).
P.J. Mackey and A.E. Wraith, “The Pembrey Copper Cathode”, Mineral Processing and Extractive Metallurgy (Trans. Inst. Min. Metall. C), 121, No. 3 (2012), 166–172.
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Mackey, P.J. (2014). Evolution of the Large Copper Smelter — 1800s to 2013. In: Mackey, P.J., Grimsey, E.J., Jones, R.T., Brooks, G.A. (eds) Celebrating the Megascale. Springer, Cham. https://doi.org/10.1007/978-3-319-48234-7_2
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