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Review of Recent Developments in Pyrometallurgy

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References

  1. W.E. Mikesell, New Patterns of World Mineral Development, British-American Committee, 1 Gough Square, London, EC4; reviewed in Mining Journal 293 (7524) (November 2, 1979) p. 373–375.

    Google Scholar 

  2. The Editors, World Mining 32 (11) (October 1979); G.O. Argali, “Dexing will be Huge Copper Mining Operation,” op. cit., p. 98–99.

    Google Scholar 

  3. British Columbia Copper Smelting and Refining Technologies Seminar, Organized by the British Columbia Ministry of Energy, Mines, and Petroleum Resources, November 5–6, 1980, Vancouver, British Columbia, Canada.

  4. P.J. Mackey and G.C. Balfour, “Pyrometallurgy,” J. Metals 30 (4) (1978) p. 36–43.

    Google Scholar 

  5. P.J. Mackey and G.C. Balfour, “Process Developments in Pyrometallurgy,” J. Metals 31 (5) (1979) p. 12–13 and 36–41.

    Google Scholar 

  6. Lead-Zinc-Tin ’80, ed. by J.M. Cigan, T.S. Mackey, and T.J. O’Keefe, Proceedings of a World Symposium on Metallurgy and Environment Control sponsored by the TMS-AIME Lead, Zinc, and Tin Committee at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada, The Metallurgical Society of AIME, N.Y., 1979.

    Google Scholar 

  7. J.A. Wright, “Lead Industries into the 1980’s,” reference 6, p. 3–12.

  8. J.L. Broad head, “Zinc in the 1980’s,” reference 6, p. 13–27.

  9. H.H. Kellogg, “Energy Use in Zinc Extractions,” reference 6, p. 28–47.

  10. T.R.A. Davey, “Advances in Lead, Zinc, and Tin Metallurgy-Projections for the 1980’s,” reference 6, p. 48–65; Ibid, “The Physical Chemistry of Lead Refining,” p. 477–507.

  11. J.M. Floyd, “The Physical Chemistry of Tin Smelting,” reference 6, p. 508–531.

  12. G.M. Willis, “The Physical Chemistry of Lead Extraction,” reference 6, p. 457–476.

  13. W. Schwartz, P. Fischer, P. Queneau, and R. Schuhmann, Jr., “QSL-A Continuous Process for Environmentally Clean Lead Production,” reference 6, p. 394–406.

  14. L. Fontainas and R. Maes, “A Two-Step Process for Smelting Complex Pb-Cu-Zn Materials,” reference 6, p. 375–393.

  15. K. Foo and J.M. Floyd, “Development of the Matte Fuming Process for Tin Recovery from Sulfide Materials,” reference 6, p. 786–800.

  16. Canadian Mining Journal, “Carr Fork Project,” June 1979, p. 44–45.

  17. Copper Studies, March 30, 1979.

  18. W.G. Davenport, “Copper Smelting to the Year 2000,” Bull. Can. Inst. Min. Metall. 73 (813) (January 1980) p. 152–158.

    Google Scholar 

  19. Mining Journal, 293 (7512) (August 10, 1979) p. 103.

  20. P.J. Mackey, Unpublished Research, Laurentian University, Sudbury Ontario, 1979.

  21. Copper and Nickel Converters ed. by R.E. Johnson, Proceedings of a Symposium on Converter Operating Practices sponsored by the TMS-AIME Pyrometallurgy Committee at the 108th AIME Annual Meeting, New Orleans, Louisiana, February 19–21, 1979, The Metallurgical Society of AIME, N.Y., 1979.

    Google Scholar 

  22. R.E. Johnson, N.J. Themelis, and G.A. Eltringham, “A Survey of Worldwide Copper Converter Practices,” reference 21, p. 1–32.

  23. G.E. Casley, J. Middlin, and D. White, “Recent Developments in Reverberatory Furnace and Converter Practice at the Mount Isa Mines Copper Smelter,” Extractive Metallurgy of Copper — Pyrometallurgy and Electrolytic Refining, ed. by J.C. Yannopoulos and J.C. Agarwal, The Metallurgical Society of AIME, New York, N.Y., 1976, p. 117–138.

    Google Scholar 

  24. G.E. Casley, C. Naumann, and L. Derrick, “An Analysis of Detailed Activities of Converter Operations for Improved Productivity,” reference 21, p. 56–80.

  25. P.J. Hansen, M.J. Morgan, and L.J. Hanschar, “Reverberatory Furnace Firing and Operating Practices on the Zambian Copperbelt,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  26. N.J. Themelis, P. Tarassoff, and J. Szekely, “Gas-Liquid Momentum Transfer in a Copper Converter,” Trans. TMS-AIME 245 (1969) p. 2425–2433.

    Google Scholar 

  27. G.N. Oryall and J.K. Brimacombe, “The Physical Behavior of a Gas Jet Injected Horizontally into Liquid Metal,” Met. Trans. B 7B (1976) p. 391–403.

    Article  Google Scholar 

  28. E.O. Hoefele and J.K. Brimacombe, “Flow Regimes in Submerged Gas Injection,” Met. Trans. B 10B (1979) p. 631–648.

    Article  Google Scholar 

  29. Proceedings of the Australian/Japan Extractive Metallurgy Symposium, held in Sydney, July 16–18, 1980, The Australasian Institute of Mining and Metallurgy, Melbourne, 1980.

  30. L. Demidowicz and W. Kozminski, “Copper Tuyere Punching Practice at Lubin Copper Mining and Metallurgical Copper Smelters,” reference 21, p. 234–238.

  31. Basic Oxygen Steelmaking—A New Technology Emerges?, Proceedings of an International Conference organized by The Metals Society, London, May 4–5, 1978.

  32. Developments in Metallurgical Control in Basic Oxygen Steelmaking, Proceedings of a conference held as part of the Sidney Gilchrist Thomas Centenary Celebrations, May 15, 1979; The Metals Society, London, 1979.

  33. F.D Richardson and J.H.E. Jeffes, “100 Years of Basic Steelmaking,” paper presented at conference in ref. 32.

  34. The Steel Industry in the Eighties, Proceedings of an International Conference organized by The Metals Society, Amsterdam, Netherlands, September 11–14, 1979; The Metals Society, London, 1979.

  35. W.G. Davenport, “Copper Metallurgy1-A Look Toward the Future,” paper presented to the 18th Annual Conference of Metallurgists, sponsored by CIM, Sudbury, Ontario, August 19–23, 1979.

    Google Scholar 

  36. J.S. Jacobi, “Optimization of Tankhouse Design,” CIM Conference, see ref. 35.

  37. P.M.J. Gray, “Investing in Technology for the.Nonferrous Industry,” CIM Conference, see ref. 35.

  38. M.C. Bell, “Basic PyrometaHurgical Research at Inco and its Application to Processing,” CIM Conference see ref. 35.

  39. P.M.J. Gray, “A Cost Basis for Development of Primary Copper Production Processes,” Advances in Extractive Metallurgy 1977, ed. by M.J. Jones, The Institution of Mining and Metallurgy, London, 1977, p. 147–151.

    Google Scholar 

  40. J.B.W. Bailey and A.G. Storey, “The Noranda Process after Six Years’ Operation,” CIM Conference, see ref. 35.

  41. T.N. Antonioni, A.D. Church, C. Landolt, and E. Partelpoeg, “Operation of the Inco Flash Smelting Furnace with Recycle of Converter Slags,” CIM Conference, see ref. 35.

  42. A.L. McKague, G.E. Norman, and J.F. Jackson, “Falconbridge Nickel Mines’ New Smeltihg Process Part 1: Concentrate Roasting,” CIM Conference, see ref. 35.

  43. A.L. McKague, G.E. Norman, and J.F. Jackson, “Falconbridge Nickel Mines’ New Smelting Process. Part II: Electric Furnace Smelting,” CIM Conference, see ref. 35.

  44. P.H. Lindon, “Smeltihg and Slag Cleaning Processes in Electric Furnace Smelting of Partially Roasted Nickel-Copper Sulfide Concentrates,” CIM Conference, see ref. 35.

  45. K.B. Chaudhuri, M. Koch, and J. Lema Patino, “The Technical-Scale Realization of the Krvcet Process for Lead,” CIM Conference, see ref. 35.

  46. K.B. Chaudhiiri, “The Application of Top-Blowing Lances in Copper Smelting,” CIM Conference, see ref. 35.

  47. Per Lennart Nystedt, “Operation of a TBRC Plant for the Treatment of Lead-Bearing Dust,” CIM Conference, see ref. 35.

  48. M.G. Burcher, M.A.T. Cocquerel, and J.G. Eacott, “A Study of Copper Smelting Reverberatory Furnace Design and Methods Available for Increasing Throughput,” CIM Conference, see ref. 35.

  49. F.R.A. Jorgensen, “Combustion of ChalCopyrite, Pyrite, Galena, and Sphalerite Under Simulated Suspension Smelting Conditions,” ref. 29, p. 42–52.

  50. V.R. Dunham and R.M. Chalasani, “Copper Refinery Tankhouse, Northern Canada: Design and Construction Features,” The Structural Engineer, 57A (8) (August 1979) p. 247–253.

    Google Scholar 

  51. J. Achurra, R. Espinosa, and L. Torres, “Improvements in the Full Use of Oxygen in Reverb Furnaces at Caletones Smelter,” TMS-AIME Paper Selection No. A77-91, 1977.

    Google Scholar 

  52. I.C. Herbert, “Extractive Metallurgy, Mining Annual Review, 1977,” Mining Journal, London, June 1977.

    Google Scholar 

  53. P.E. Queneau and R. Schuhmanmn, Jr., “Metamorphosis of the Copper Reverberatory Furnace: Oxygen Sprinkle Smelting,” J. Metals 31 (12) (1979) p. 12–15.

    Google Scholar 

  54. Cobalt ’80, papers presented at the Canadian Institute of Mining and Metallurgy 10th Annual Hydrometallurgical Meeting, compiled by I.M. Masters, Edmonton, October 26–28, 1980.

    Google Scholar 

  55. S. Rvotti, “The Description of a Mathematical Model for the Flash Smelting of Copper Concentrates,” Combustion and Flame 34 (1979) p. 1–11.

    Article  Google Scholar 

  56. F.R.A. Jorgensen, “Heat Transfer Mechanism in Ignition of Nickel Sulfide Concentrate under Simulated Flash Smelting Conditions,” Proceedings Australas Institute of Mining and Metallurgy, (271) (September 1979) p. 21–25.

    Google Scholar 

  57. T.M. Young and W.P. Imrie, “Energy Development in Nickel-Copper Smelting for Minimum Dependence on Oil Fuel,” TMS-AIME paper selection A80-43, 1980.

    Google Scholar 

  58. R. Nadkami, K. Paraneswaran, and T.D. Chatwin, “Potential for the Use of Coal in Copper Smelting,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  59. K. Hudson, R.N.T. Gilges, and D. Franklin, “The Use of Biomass Fuel in a Metallurgical Operation,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  60. “Copper Metallurgy,” Trans. AIME 106 (1933), a volume on copper metallurgy dedicated to James Douglas, containing 42 papers on smelting, refining, and leaching.

  61. James Douglas, “Summary of American Improvements and Inventions in Ore-Crushing and Concentration, and in the Metallurgy of Copper, Lead, Gold, Silver, Nickel, Aluminum, Zinc, Mercury, Antimony and Tin,” Trans. AIME XXII (1893) p. 321–344.

    Google Scholar 

  62. T.N. Antonioni, Flash Smelting Furnace, U.S. Patent 4,143,865, March 13, 1979.

    Google Scholar 

  63. I.P. Tsibin, E.P. Taigil’dina, A.S. Telegin, L.I. Kuz’min, and R.A. Panfilov, “Thermo-physical Characteristics of Packed Masses for the Cooling System of the Lining in Copper-Smelting Converters,” Soviet Nonferrous Metals Research Transl. of Ezv. Vuz. Tsvet-naya Metallurgia 4 (6) (1976).

    Google Scholar 

  64. W.P.T. Nickel, P. Siewert, and G.W. Thornton, “Commissioning the Afton Copper Smelter,” TMS-AIME paper selection A80-55, 1980.

    Google Scholar 

  65. S. Dayton, “Utah Copper and the $280 Million Investment in Clean Air,” EMJ 180 (4) (April 1979) p. 72–83.

    Google Scholar 

  66. “CIPEC’s Big Four,” EMJ 180 (November 1979) p. 66–206.

  67. P.E. Queneau and H.J. Roorda, “Nickel,” Chapter 17 in Ullmann’s Encyklopadie der Technischen Chemie, Verlag Chemie GmbH, Weinheim, 1979, p. 239–286.

    Google Scholar 

  68. J.M. Floyd, D.S. Conochie, and N.C. Grave, “Measurement of Oxygen Potential in Slags in a Nickel Smelter using Disposable-Tip EMF Cells,” (270) (June 1979) p. 15–23.

    Google Scholar 

  69. The Staff, “Recent Developments at Kalgoorlie Nickel Smelter,” paper presented at the Symposium, Recent Developments in Extractive Metallurgy, Aus. I.M.M. Annual Conference, Kalgoorlie, W.A., August 19, 1979.

    Google Scholar 

  70. L.L. Lilja and J. Mikatalo, Procedure for Producing a Suspension of a Powdery Substance and a Reaction Gas, U.S. Patent 4,147,535, April 3, 1979.

    Google Scholar 

  71. S.A.I. Makipirtti and J.J. Kayhko, Process and Device for Suspension Smelting of Finely Divided Oxide and/or Sulfide Ores and Concentrates, Especially Copper and Nickel Concentrates Rich in Iron, U.S. Patent 4,139,371, February 13, 1979.

    Google Scholar 

  72. D.A. Temple, “Extractive Metallurgy—A Glimpse of Things to Come,” Presidential Address to the Institution of Mining and Metallurgy, London, May 17, 1979; The IMM, London, 1979.

    Google Scholar 

  73. R. Sisselman, “La Caridad Copper—The World’s Newest Greenfields Copper Complex Gives Mexico Something to Cheer About,” EMJ 180 (10) (October 1979) p. 72–88.

    Google Scholar 

  74. J.B.W. Bailey and G.C. Balfour, “Refractory Practice for the Noranda Process,” TMS-AIME paper selection No. A80-57, 1980.

    Google Scholar 

  75. B. Andersson, Y. Anjala, and T. Mantymaki, “Development Trends in Outokumpu Flash Smelting Technology with Particular Reference to the Requirements on Furnace Reaction Shaft Cooling Techniques and Refractories,” TMS-AIME paper selection No. A80-26, 1980.

    Google Scholar 

  76. M. Goto and T. Echigoya, “Refractory Practice and Application of Water Jackets in Mitsubishi Process,” TMS-AIME paper selection No. A80-19, 1980.

    Google Scholar 

  77. E. Kimura, “Lancing Mechanism in Mitsubishi Continuous Smelting Furnace,” paper presented at the symposium of the 140th Committee (Physico-Chemical Properties of Substances at Metallurgical Temperatures), Japanese Society for Promotion of Science, October 31, 1979, Tokyo (in Japanese).

  78. W.R. Opie, H.P. Rejcevic, and E.R. Querijero, “Dead Roasting and Blast Furnace Smelting of Chalcopyrite Concentrate,” TMS-AIME paper selection No. A79-11, 1979.

    Google Scholar 

  79. M.L. Page, “A Minerological Study of Nickel Mattes from the Kalgoorlie Nickel Smelter, Kalgoorlie, Western Australia,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  80. Inco Metals Company, Annual Report 1979.

  81. The Falcon, Canadian Nickel Division of Falconbridge Nickel Mines Ltd., 13 (3) (April 1979).

    Google Scholar 

  82. J.S. Diakow, Y.F. Mak, and R.G. Orr, “Metallurgy of the Converting Process in the Thompson Smelter,” paper presented at the 14th Annual Conference of Metallurgists, CIM, Edmonton, Alberta, August 1975.

    Google Scholar 

  83. S.C.C. Barnett, “The Methods and Economics of Slag Cleaning,” Min. Mag. 140 (5) (1979) p. 408–417.

    Google Scholar 

  84. P.R. Ammann, J.J. Kim, and T.A. Loose, “The Kennecott Process for Nickel Slag Cleaning,” J. Metals 31 (2) (1979) p. 20–25.

    Google Scholar 

  85. R.G. Reddy and G.W. Healy, “Distribution of Cobalt between Liquid Copper and Copper Silicates,” TMS-AIME paper selection A80-85, 1980.

    Google Scholar 

  86. R.J.M. Wyllie, “Cobalt,” World Mining 32 (5) (May 1979) p. 40–43.

    Google Scholar 

  87. G.E. Likens, R.F. Wright, J.N. Galloway, and T.J. Butler, “Acid Rain,” Sci. American 241 (4) (October 1979) p. 43–51.

    Article  Google Scholar 

  88. A.D. Church, C. Landolt, and F. Boniakowski, “Measurement of Fugitive Particulate and Sulfur Dioxide Emissions at Inco’s Copper Cliff Smelter,” paper presented at the 108th AIME Annual Meeting, New Orleans, Louisiana, February 18–22, 1979.

    Google Scholar 

  89. A.D. Church, C. Landolt, and F. Boniakowski, “Measurement of Sulphur Dioxide and Particulate Fugitive Emissions from the Nickel and Copper Converter Operations at Inco’s Copper Cliff Smelter,” CIM Conference, see ref. 35.

  90. Control of Particulate Emissions in the Primary Nonferrous Metals Industries, Symposium Proceedings, Del Monte Hyatt House, Monterey, California, March 18–21, 1979; EPA_600/ 2-79-211, December 1979, ed. by R.L. Meek, Industrial Environmental Research Laboratory Protection Agency, Cincinnati, Ohio, 1979.

  91. Gas Injection into Liquid Metals, Proceedings of a One Day Meeting at University of Newcastle upon Tyne, April 19, 1979, ed. by A.E. Wraith, The Institution of Mining and Metallurgy and The Metals Society, 1979.

    Google Scholar 

  92. A. Felski, S.N. Waldron, and C. Moore, “Atmospheric Gases in Liquid Metal Processes,” paper in ref. 91.

  93. M. Nilmani and D.G.C. Robertson, “Model Studies of Gas Injection at High Flow Rates using Water and Mercury,” paper in ref. 91.

  94. G.A. Irons and R.I.L. Guthrie, “Bubbling Behaviour in Molten Metals,” paper in ref. 91.

  95. M.E. Chalkley and A.E. Wraith, “Gas Dispersion at an Annular Tuyere,” paper in ref. 91.

  96. T.A. Engh, K. Larsen, and K. Venas, “Penetration of Particle/Gas Jets into Liquids,” paper in ref. 91.

  97. K. Mori, Y. Ozawa, and M. Sano, “Characterization of Jet Behaviour at a Submerged Orifice in Liquid Metal,” paper in ref. 91.

  98. G. Denier, J.C. Grosjean, and H. Zanetta, “Heat Transfer in Tuyeres for Oxygen Bottom Blowing Converters,” paper in ref. 91.

  99. J.W. McKelliget, M. Cross, R.D. Gibson, and J.K. Brimacombe, “On the Modelling of Submerged Gas Jetes,” paper in ref. 91.

  100. T. Robertson and A.K. Sabharwal, “A Physical Modelling-Based Approach to Some Problems Associated with Submerged Gas Injection into Liquid Metal Melts,” paper in ref. 91.

  101. D.S. Conochie and D.G.C. Robertson, “The Behaviour of the Third Phase Produced in Gas Bubble-Liquid Reactions,” paper in ref. 91.

  102. D.S. Conochie and D.G.C. Robertson, “A Ternary Interfacial Energy Diagram,” paper in ref. 91.

  103. F.M. Aimone and K.A. Fern, “Mechanical Tuyere Punching of Copper Converters,” paper in ref. 91.

  104. D.J. Hallett, P.R. Hendra, and R.J. Tait, “The Cupellation of Lead-Copper-Silver Bullion by the Bottom Injection of Oxygen,” paper in ref. 91.

  105. N.A. McPherson, “Effects of Injecting Argon into the Mould of a Continuous Slab Caster,” paper in ref. 91.

  106. P. Ritakallio, “Nitrogen Alloying of Low Alloy Steel in the Ladle by Injection of Cal-ciumcyanamide (CaCN2) Powder with Nitrogen (N2) as a Carrier Gas,” paper in ref. 91.

  107. K. Potocnik, “Wall Design for Metallurgical Furnaces,” TMS-AIME paper selection A80-5, 1980.

    Google Scholar 

  108. E.L. Bedell, “Basic Fused Refractories-Their Application to Nonferrous Processes,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  109. R.I. Robertson and A.J. Morgan, “Refractory Development for the Nonferrous Indus-tries-Are We at a Crossroads?,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  110. C.P. Carswell, M. Peatfield, and R.F. Spencer, “Laboratory Evaluation and Service Performance of Basic Refractory Materials in Severe Wear Areas of Nonferrous Furnaces,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  111. M. Shima and Y. Itoh, “Flash Furnace Refractories in Japan,” TMS-AIME paper selection A80-34, 1980.

    Google Scholar 

  112. H. Parthel and E. Kaltner, “Stresses and Wear of Chrome-Magnesite Refractories in Copper Smelting Furnaces,” paper presented at the 109th AIME Annual Meeting, February 24–28, 1980, Las Vegas, Nevada.

  113. T.C. Hunter and J.G. Reid, “The Development and Use of High Conductivity ETP Copper Sections Drilled with Water Passages for Furnace and Heireshoff Roaster Applications,” TMS-AIME paper selection A80-16, 1980.

    Google Scholar 

  114. M.A.T. Cocquerel, “Development of a Plan to Increase Cobalt Production at Nchanga Consolidated Copper Mines Limited,” TMS-AIME paper selection A80-7, 1980.

    Google Scholar 

  115. A.D. Church, C. Landolt, and F. Boniakowski, “Measurement of Fugitive Emissions from Inco’s Copper Cliff Smelter,” symposium on fugitive emissions sponsored by U.S. EPA, New Orleans, Louisiana, May 28–30, 1980.

    Google Scholar 

  116. R. Orchard, “Emissions Control Tackled by Inco,” Canadian Mineral Processing, 64 (7) (October 15, 1980) p. 43–46.

    Google Scholar 

  117. C.F. Baird, “Remarks to European Financial Communities,” Oct. 27-Nov. 5, 1980, and to Metals and Mining Financial Analysts, Toronto and New York, December 16 and 17, 1980; Inco Metals Company, Toronto, 1980.

    Google Scholar 

  118. J.M. Floyd, N.C. Grave, and B.W. Lightfoot, “Small Pilot Plant Trials of SIRO-SMELT Copper Smelting,” ref.29, p. 63–74.

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P.J. Mackey is program manager, Noranda Process, with Noranda Mines Limited. He received his BSc and PhD in metallurgical engineering from the University of New South Wales, Sydney, Australia. He joined Noranda Research Centre in 1969. He was smelter technical superintendent at Noranda Mines Limited, Noranda, Quebec from 1974–1979, and was responsible for technical policy for bot. operations and development at the large Noranda Smelter. During 1979–1980, he was professor of metallurgy at Laurentjan University.

A.D. Church is superintendent of Technical Services, Process Technology, in the Copper Cliff Complex of INCO Metals Ltd, Sudbury, Ontario. He was previously superintendent of Process Technology at the Copper Cliff Smelter, and responsible for development of metallurgical improvements and process and environmental control. Prior to joining the smelter in 1976, he held positions in the Port Colborne Research Stations and the J. Roy Gordon Research Lab of INCO Metals. He received his BSc from Brunei University, London, England.

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Mackey, P.J., Church, A.D. Review of Recent Developments in Pyrometallurgy. JOM 33, 28–35 (1981). https://doi.org/10.1007/BF03354404

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