This paper discusses the converters for Ni separation, from a historic perspective and with concern as to current needs. The historic development of converter processes, starting from Bessemer to modern processes, is covered and the thermodynamic fundamentals of Ni converter reactions are briefly described. Environmental and recycling challenges are also discussed.
Anonymous. 1883a. Bessemerizing copper mattes. Eng Min J. 36:338.
2.
Anonymous. 1883b. Untitled. Eng Min J. 36:393.
3.
Anonymous. 1917. Report of the royal ontario nickel commission and appendix. Royal Ontario Nickel Commission, 583 pp.
4.
Anonymous. 1955. Smelting sulfides in suspension. Chem Eng News Arch. 33(19):1966–1968. doi: 10.1021/cen-v033n019.p1966
5.
Anonymous. 2012. CO2 capture technologies: Oxy-combustion with CO2 capture. Melbourne: Global CCS Institute.
6.
BakkerML, NikolicS, AlvearGRF.2011. ISACONVERTTM—Continuous converting of Nickel/PGM matte with calcium ferrite slag. J Met. 63(5):61–65.
7.
BaldwinWH.1931. The story of Nickel. Part I. How ‘Old Nick's’ gnomes were outwitted. J Chem Educ. 8(9):1749–1762. doi: 10.1021/ed008p1749
8.
BarlowAE.1904. Report on the origin, geological relations, and composition of the Nickel and Copper deposits of the sudbury mining district, Ontario, Canada. Part H in: Geological Survey of Canada, 1905. Annual Report, Volume IV.
9.
BessemerH.1856. On the manufacture of malleable iron and steel without fuel. Civil Eng Archit J. 19:298–300.
10.
BlakeWP.1883. The metallurgy of nickel in the United States. AIME T. 11:272–281.
11.
BoldtJR.Jr. 1967. The winning of nickel – Its geology, mining and extractive metallurgy, QueneauP., editor. Princeton (NJ): D Van Nostrand Company Incorporated.
12.
BrimacombeJK, HoefeleEO.1980. Non-ferrous metal treatment. U.S. Patent 4, 238, 228, 1980.
13.
BustosAA, KapustaJP.2000. High oxygen shrouded injection into copper and nickel converters. In: IronsGA, CrambAW, editors. The brimacombe memorial symposium. Vancouver: Canadian Institute of Mining, Metallurgy and Petroleum; p. 107–124.
14.
BustosAA, KapustaJP, MacNamaraBR, CoffinMR.1999. High oxygen shrouded injection at falconbridge. In: DiazC, LandoltsC, UtigardT, editors. Proceedings of copper 99-cobre 99 international conference, volume VI- smelting technology development, process modeling and fundamentals. TMS.
15.
BustosAA, RichardsGG, GrayNB, BrimacombeJK.1984. Injection phenomena in nonferrous processes. Metall Mater Trans B. 15(1):77–89. doi: 10.1007/BF02661065
16.
CoveneyJA, BaldockBR, HughesS, ReuterMA.2009. Ausmelt technology for nickel & PGM's processing. In: LiuJ., , editor.Pyrometallurgy of Nickel and Cobalt. Sudbury: Canadian Institute of Mining, Metallurgy and Petroleum; p. 169–180.
17.
de BarbadilloJJ, PargeterJK, MakarHV.1981. Process for recovering chromium and other metals from superalloy scrap. U.S. Bureau of Mines Report of Investigations 8570.
18.
FloydJM.2005. Converting an idea into a worldwide business commercializing smelting technology. Metall Mater T B. 36(5):557–575. doi: 10.1007/s11663-005-0047-7
19.
FogashKB.2010. Flue Gas purification utilizing SOx/NOx reactions during compression of CO2 derived from oxyfuel combustion. U.S. Department of Energy. Final Report, DE-NT0005309.
20.
FollettW.2017. Oxy-combustion pressurized fluidized Bed with carbon dioxide purification. In: 2017 NETL CO2 capture technology project review meeting. National Energy Technology Laboratory, U.S. Department of Energy.
21.
FyfeA.1822. Analysis of tutenag, or the white copper of China. Edinburgh Philos J. 7:69–71.
22.
HoefeleEO, BrimacombeJK.1979. Flow regimes in submerged Gas injection. Metall Trans B. 10(4):631–648. doi: 10.1007/BF02662566
23.
HundleyGL, DavisDL.1991. Recovery of critical metals from superalloy scrap by matte smelting and hydrometallurgical processing. U.S. Bureau of Mines Report of Investigations 9390.
24.
KojoIV, JokilaaksoA, HannialaP.2000. Flash smelting and converting furnaces: A 50 year retrospect. J Met. 52(2):57–61.
25.
KylloAK.1994. A kinetic model of the peirce smith converter [Ph.D. Thesis]. University of British Columbia, 270 pp.
26.
KylloAK, RichardsGG.1991. A mathematical model of the nickel converter: Part I. Model development and verification. Metall Trans B. 22B:153–161. doi: 10.1007/BF02652480
27.
KylloAK, RichardsGG, MarcusonSW.1992. A mathematical model of the nickel converter: Part II. Application and analysis of converter operation. Metall Trans B. 23B:573–582. doi: 10.1007/BF02649717
28.
LandoltCA, DuttonA, EdwardsJD, McDonaldRN.1992. SO2 abatement, energy conservation, and productivity at copper cliff. JOM. 44(9):50–55. doi: 10.1007/BF03222328
29.
LeslieRW.1921. History of the Portland cement industry of the United States. Incorporated: International Trade Press.
30.
LockwoodT.2014. Developments in oxyfuel combustion of coal. CCC/240. London: IEA Clean Coal Centre.
31.
NeumannB.1903. Die anfänge der argentan- (neusilber)-industrie und der technischen nickelerzeugung. Zeitschrift für Angewandte Chemie. 16:225–232. doi: 10.1002/ange.19030161004
32.
PeirceWH, SmithEAC.1909. Method of and converter vessel for bessemerizing copper matte. U.S. Patent Number 942, 346.
33.
PerrinN, DubettierR, LockwoodF, CourtP, TranierJ-P, Bourhy-WeberC, DevauxM.2013. Oxycombustion for carbon capture on coal power plants and industrial processes: advantages, innovative solutions and key projects. Energy Procedia. 37:1389–1404. doi: 10.1016/j.egypro.2013.06.015
34.
PriceT, HarrisC, HillsS, BoydW, WraithA.2009. Peirce-Smith converting – Another 100 years? In: TMS annual meeting; p. 181–197.
35.
QueneauPE.1977. Oxygen technology and conservation. Metall Trans B. 8(2):357–369. doi: 10.1007/BF02696922
36.
QueneauPE, DiazCM.2000. Continuous nickel matte converter for production of low ion containing nickel-rich matte with improved cobalt recovery. U.S. Patent Number 6, 270, 554.
37.
RileyJ.1889. Alloys of nickel and steel. J Iron Steel Inst. 1:45–77.
38.
RosenbergSJ.1968. Nickel and its alloys. National Bureau of Standards Monograph 106. Washington (DC): U.S. Department of Commerce, 156 pp.
39.
SaddingtonR, CurlockW, QueneauP.1966. Tonnage oxygen for nickel and copper smelting at copper cliff. JOM. 18(4):440–452. doi: 10.1007/BF03378424
40.
ShahM, DegensteinN, ZanfirM, SolunkeR, KumarR, BugayongJ, BurgersK.2012. Near-Zero emissions oxy-combustion flue Gas purification. U.S. Department of Energy. Final Report, DE-NT0005341.
SouthwickLM.2008. William peirce and E.A. Cappelen Smith and their amazing copper converting machine. JOM. 60(10):24–34. doi: 10.1007/s11837-008-0131-y
43.
SprouleK.1947. U.S. Patents 2, 419, 973 and 2, 425, 760.
44.
SrivistavaRR, KimM, LeeJ, JhaMK, KimB-S.2014. Resource recycling of superalloys and hydrometallurgical challenges. J Mater Sci. 49(14):4671–4686. doi: 10.1007/s10853-014-8219-y
45.
TanP, NeuschützD.2001. A thermodynamic model of nickel smelting and direct high-grade nickel matte smelting processes: Part I. Model development and validation. Metall Mater T B. 32B:341–351. doi: 10.1007/s11663-001-0057-z
46.
WadhamsAJ.1930. Amercian chemical industries the international nickel company. Ind Eng Chem. 22(7):806–809. doi: 10.1021/ie50247a031
47.
WarnerAEM, DiazCM, DalviAD, MackeyPJ, TarasovAV.2006. JOM world nonferrous smelter survey: Part III: Nickel: Laterite. JOM. 58(4):11–20. doi: 10.1007/s11837-006-0209-3
48.
WarnerAEM, DiazCM, DalviAD, MackeyPJ, TarasovAV, JonesRT.2007. JOM world nonferrous smelter survey Part IV: Nickel: Sulfide. JOM. 59(4):58–72. doi: 10.1007/s11837-007-0056-x
49.
WhellockJG, MatousekJW.1990. Processing precious metals in a top-blown rotary converter. J Met. 42(9):23–25.