The Plasma Production of Ferromolybdenum — Process Development and Economics
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OpenAlex topics: Minerals Flotation and Separation Techniques · Metallurgical Processes and Thermodynamics · Recycling and Waste Management Techniques
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References (41)
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1. I.G. Sayce, “Plasma Processes in Extractive Metallurgy,” Advances in Extractive Metallurgy and Refining, Alden Press, Oxford, 1972, p. 1–34.
2. N.N. Rykalin, “Plasma Engineering in Metallurgy and Inorganic Materials Technology,” Pure & App. Chem., 48, (1976) p. 179–194.10.1351/pac197648020179 ↗
3. S.M.L. Hamblyn, “Plasma Technology and Its Application to Extractive Metallurgy,” Minerals Sci. Eng., 9 (3) (1977) p. 151–176.
4. J. Aubreton and P. Fauchais, “Les Fours à Plasma,” Revue Générate de Thermique, No. 200-201, (August-September 1978).
5. C. Bonet, “Thermal Plasma Processing,” Chemical Engineering Progress, 76 (12) (1976) p. 63–69.
6. C. Sheer, S. Korman, D.J. Angier, and R.P. Cahn, “Arc Vaporization of Refractory Powders;” S. Korman, C. Sheer, D.K. Angier, and H. Shaw, “Properties of Sub-Micron Oxides Produced by Arc Vaporization,” in Fine Particles, edited by W.E. Kuhn, Electrochemical Society, 1974, p. 133–164.
7. D.R. Mac Rae, R.G. Gold, C.D. Thompson, and W.R. Sandall, “Ferrovanadium Production by Plasma Carbothermic Reduction of Vanadium Oxide,” 34th Electric Furnace Conference, St. Louis, Missouri, December 1976.
8. F.H. Howie and I.G. Sayce, “Plasma Heating of Refractory Melts,” Revue Int. Hies. Temp, et Refract., 11 (3) (1974) p. 169–176.
9. C.A. Pickles, A. McLean, C.B. Alcock, and R.S. Segsworth, “Graphite Electrode Plasma Furnaces and Their Application for Iron and Steel Making,” Advances in Extractive Metallurgy, Institution of Mining and Metallurgy, London, 1977, p. 69–87.
10. D. Yeroushalmi, “Four Rotatif à Haute Temperature Chauffé Axialement par un Plasma d’Arc pour la Fusion et l’Elaboration de Produits Ultraréfractaires et de Métaux,” Jour, du Four. Electrique et des Industries Electrochemiques, 3 (1979) p. 26–33.
11. D. Yeroushalmi, idem, Jour, du Four. Electrique et des Industries Electrochimiques, 4 (1979) p. 24–28.
12. J.K. Tylko, to Tetronics Research and Development Company, “Process for High Temperature Treatment of Materials,” U.S. Patent 3,932,171 (1976).
13. “Plasma Process is Ready for Metal Recovery,” Chemical Engineering, 86 (4) (1979) p. 75–77.
14. M.G. Fey and F.J. Harvey, “Plasma Heating Devices in the Electric Energy Economy,” Metals Eng. Quarterly (May 1976) p. 27–30.
15. P.H. Dundas and M.L. Thorpe, “Titanium Dioxide Production by Plasma Processing,” Chemical Engineering Progress, 66 (10) (1970) p. 66–71.
16. P.H. Wilks, P. Ravinder, C.L. Grant, P.A. Pelton, R.J. Downer, and M.L. Talbot, “Plasma Process for Zirconium Dioxide,” Chemical Engineering Progress, 68 (4) (1972) p. 82–83.
17. W. Borer, Personal communications, August 1978 and August 1979.
18. G.R. Kubanek, R.J. Munz, and W.H. Gauvin, “Plasma Decomposition of Molybdenum Disulphide,” Proceedings of Third International Symposium on Plasma Chemistry, Limoges, France, July 1977.
19. F. Esser et al., “Theory of Remelting and Melting-Down of Solid Metallic Charges in a Plasma Furnace-A Contribution to Optimizing the Process of Plasma Primary Melting,” Neue Hutte, 19 (10) (1974) p. 577–586.
20. H. Fiedler, “The State of Plasma Melting Technology in the GDR,” Neue Hutte, 21 (2) (1976) p. 69–72.
21. A.S. Borodachyov, G.N. Okorokov, N.P. Pozdeev, N.A. Tulin (USSR), H. Fiedler, F. Muller, and G. Scharf (GDR), “Plasma Steel-Making Fumaces-Development and Application Experience,” Proceedings of the World Electrotechnical Congress, Paper No. 4A 26, Session IV, Moscow, USSR, June 1977.
22. J. Amouroux, J.L. Codron, and D. Morvan, “Etudes Technico-Economique de Production d’Acier au Plasma,” Revue Général d’Electricité, 87 (6) (1978) p. 519–530.
23. R.G. Gold, W.R. Sandall, P.G. Cheplick, and D.R. Mac Rae, “Plasma Reduction of Iron Oxide with Hydrogen and Natural Gas at 100 kW and One Megawatt” in Metal-Slag-Gas Reactions and Processes, edited by Z.A. Foroulis and W.W. Smeltzer, Electrochemical Society, 1975 p. 969–981.
24. K. Arkless and D. Cleaver, to Tioxide International, Oxidation Process, British Patent 1,035,191 (1966).
25. CIM Bulletin, 72 (811) (1979) p. 114.
26. C. Asada and T. Adachi, “On Plasma Induction Melting,” in Third International Symposium on Electroslag and Other Special Melting Technology, edited by G.K. Bhat and A. Simkovich, June 1971, p. 165.
27. R.J. Munz and W.H. Gauvin, “The Decomposition Kinetics of Molybdenite in an Argon Plasma,” AIChE J., 21 (6) (1975) p. 1132–1142.10.1002/aic.690210613 ↗
28. I.A. De Vynck, “Chemical Applications of Arc Plasma Techniques — The Thermal Decomposition of Molybdenite,” Bull. Soc. Chim. Belg., 86 (7) (1977).
29. I.A. De Vynck, “Une Technique d’Amorcage et de Stabilisation d’Arcs de Haute Enthalpie et de Large Section,” Electrowarme International, 36 (1978) p. B35–39.
30. M.G. Coleby and G.J. Davies, “Effect of Some Process Variables on the Thermal Decomposition of Molybdenite in an Induction-Coupled Argon Flame,” Trans. I. Chem. E., 57 (2) (1979) p. 128–133.
31. J.H. Harrington, “Reduction and Dissociation of Molybdenum Compounds in a Transferred Plasma Arc,” Proceedings of the 4th International Symposium on Plasma Chemistry, Zurich, Switzerland, August 1979.
32. J.A. Lewis and W.H. Gauvin, “Motion of Particles Entrained in a Plasma Jet,” AIChE J., 19 (5) (1973) p. 982–990.10.1002/aic.690190515 ↗
33. S. Katta and W.H. Gauvin, “Local and Overall Heat Transfer to Spheres in a Confined Plasma Jet,” Heat Transfer: Fundamentals and Industrial Applications, AIChE Symposium Series No. 131, Vol. 69, 1973, p. 174–182.
34. S. Katta and W.H. Gauvin, “The Effect of Local Gas Velocity and Temperature on Local Heat Transfer to a Sphere in a High Temperature Jet,” Can. J. Chem. Eng., 51 (3) (1973) p. 307–314.10.1002/cjce.5450510307 ↗
35. N.N. Sayegh and W.H. Gauvin, “Numerical Analysis of Variable Property Heat Transfer to a Single Sphere in High Temperature Surroundings,” AIChE J., 25 (3) (1979) p. 523–534.10.1002/aic.690250319 ↗
36. N.N. Sayegh and W.H. Gauvin, “Heat Transfer to a Stationary Sphere in a Plasma Flame,” AIChE J., 25 (6) (1979) p. 1057–1064.10.1002/aic.690250617 ↗
37. M.I. Boulos and W.H. Gauvin, “Powder Processing in a Plasma’tfet: Proposed Model,” Can. J. Chem. Eng., 52 (3) (1974) p. 355–363.10.1002/cjce.5450520309 ↗
38. D. Bhattacharyya and W.H. Gauvin, “Modeling of Heterogeneous Systems in a Plasma Jet Reactor,” AIChE J., 21 (5) (1975) p. 879–885.10.1002/aic.690210508 ↗
39. O. Biceroglu and W.H. Gauvin, “Chlorination Kinetics of ZrO2 in an R.F. Plasma Flame,” AIChE J., 26 (5) (1980) p. 734–743.10.1002/aic.690260506 ↗
40. T. Mehmetoglu, W.H. Gauvin, and F. Kitzinger, “Characteristics of Plasma Transferred Arcs,” paper presented at the Fourth International Symposium on Plasma Chemistry, Zurich, Switzerland, August 1979.
41. H.K. Choi, “Energy Distribution and Rates of Heat Transfer in a Transferred Arc Plasma Reactor,” PhD Dissertation, McGill University (in preparation).