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International Journal of Metallurgical & Materials Engineering Volume 4 (2018), Article ID 4:IJMME-146, 7 pages
http://dx.doi.org/10.15344/2455-2372/2018/146
Review Article
An Overview of Technologies and Selective Depressing Agents for Separating Chalcopyrite and Talc

Runpeng Liao1, Jiushuai Deng1,2*, Hao Lai1, Jiaozhong Cai1, Xi Zhang1,2, Shuming Wen1, Hua Yang3, Jianying Deng1, Jian Fang1 and Xuesong Sun1

1State Key Laboratory of Complex Nonferrous Metal Resources Clean Utilization, Kunming University of Science and Technology, Kunming, China
2School of Chemical Engineering and Technology, China University of Mining and Technology (Beijing), Beijing, China
3Tibet Huatailong Mining Development Co.,Ltd, China Gold, Lhasa 850200, China
Prof. Jiushuai Deng, State Key Laboratory of Complex Nonferrous Metal Resources Clean Utilization, Faculty of Land Resource Engineering, Kunming University of Science and Technology, Kunming 650093, China; E-mail: dengshuai689@163.com
16 November 2018; 14 December 2018; 16 December 2018
Liao R, Deng J, Lai H, Cai J, Zhang X, et al. (2018) An Overview of Technologies and Selective Depressing Agents for Separating Chalcopyrite and Talc. Int J Metall Mater Eng 4: 146. doi: https://doi.org/10.15344/2455-2372/2018/146
This research project has been supported by National Natural Science Foundation of China (Grant No. 51764022, 51464029 & 51404119), Fok Ying Tong Education Foundation (161046), China Postdoctoral Science Foundation (2018M632810) and Open Project of State Key Laboratory of Mineral Processing Science and Technology (BGRIMM-KJSKL-2017-15) and Open Project of Key Laboratory of Biohydrometallurgy, Ministry of Education, Central South University (MOEKLB1706).
© Liao et al. This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.

References

  1. Shuo-Shi Lu (2010) Research on Crystal Chemistry of Talc and Review and Application of Talc Flotation in Mineral Processing of Nonferrous Sulphide Ores. Mining & Metallurgy 24: 517-519.
  2. Bai L, Liu J, Han Y, Jiang K, Zhao W (2018) Effects of Xanthate on Flotation Kinetics of Chalcopyrite and Talc. Minerals 8: 369. View
  3. Farrokhpay S, Ndlovu B, Bradshaw D (2018) Behavior of talc and mica in copper ore flotation. Applied Clay Science 160: 270-275. View
  4. Deng JS, Wen SM, Jian L, Wu DD, Feng QC (2014) Adsorption and activation of copper ions on chalcopyrite surfaces: A new viewpoint of self-activation. Transactions of Nonferrous Metals Society of China 24: 3955-3963. View
  5. Heyes G, Trahar W (1977) The natural flotability of chalcopyrite. International Journal of Mineral Processing 4: 317-344. View
  6. Aghazadeh S, Mousavinezhad SK, Gharabaghi M (2015) Chemical and colloidal aspects of collectorless flotation behavior of sulfide and nonsulfide minerals. Advances in colloid and interface science 225: 203-217. View
  7. F Mohs (1825) Treatise on Mineralogy. Caledonian Mercury Press, Edinburgh.
  8. Broz ME, Cook RF, Whitney DL (2006) Microhardness, toughness, and modulus of Mohs scale minerals. American Mineralogist 91: 135-142. View
  9. Pan G, Yiping LU (2013) Study on the Inhibition Effect of CMC and Guar Gum in the Talc Flotation. Nonferrous Metals.
  10. Fuerstenau M, Lopez-Valdivieso A, Fuerstenau D (1988) Role of hydrolyzed cations in the natural hydrophobicity of talc. International Journal of Mineral Processing 23: 161-170. View
  11. Vidal CG, Pawlik M (2015) Molecular weight effects in interactions of guar gum with talc. International Journal of Mineral Processing 138: 38-43. View
  12. Burdukova E, Laskowski J, Bradshaw D (2006) Surface properties of talc and their effect on the behaviour of talc suspensions. Proceedings of the XXIII International Mineral Processing Congress. Promed Advertising Istanbul.
  13. Burdukova E, Becker M, Bradshaw D, Laskowski J (2007) Presence of negative charge on the basal planes of New York talc. J Colloid Interface Sci 315: 337-342. View
  14. Fuerstenau D, Huang P (2003) Interfacial phenomena involved in talc flotation and depression. XXII International Mineral Processing Congress, South Africa.
  15. Kaggwa GB, Huynh L, Ralston J, Bremmell K (2006) The influence of polymer structure and morphology on talc wettability. Langmuir 22: 3221-3227. View
  16. Vidal CG, Pawlik M (2015) Molecular weight effects in interactions of guar gum with talc. International Journal of Mineral Processing 138: 8-43. View
  17. Chander S, Wie J, Fuerstenau D (1975) On the native floatability and surface properties of naturally hydrophobic solids. AIChE Symp Ser. View
  18. Ulian G, Tosoni S, Valdrè G (2014) The compressional behaviour and the mechanical properties of talc [Mg 3 Si 4 O 10 (OH) 2]: a density functional theory investigation. Physics and Chemistry of Minerals 41: 639-650. View
  19. Larentzos JP, Greathouse JA, Cygan RT (2007) An ab initio and classical molecular dynamics investigation of the structural and vibrational properties of talc and pyrophyllite. The Journal of Physical Chemistry C 111: 12752-12759. View
  20. Ulian G, Tosoni S, Valdrè G (2013) Comparison between Gaussian-type Orbitals and Plane Wave ab initio DFT modeling of layered silicates: Talc mineral as model system. J Chem Phys 139: 204101. View
  21. Tunega D, Bučko T, Zaoui A (2012) Assessment of ten DFT methods in predicting structures of sheet silicates: Importance of dispersion corrections. The Journal of Chemical Physics 137: 114105. View
  22. Bruno M, Prencipe M (2006) Ab initio quantum-mechanical modeling of pyrophyllite [Al 2 Si 4 O 10 (OH) 2] and talc [Mg 3 Si 4 O 10 (OH) 2] surfaces. Physics and chemistry of minerals 33: 63-71. View
  23. Ulian G, Valdrè G (2015) Density functional investigation of the thermophysical and thermochemical properties of talc [Mg 3 Si 4 O 10 (OH) 2]. Physics and Chemistry of Minerals 42: 151-162. View
  24. Hayashi Y, Akiyama S, Miyaji A, Sekiguchi Y, Sakamoto Y, et al. (2016) Experimental and computational studies of the roles of MgO and Zn in talc for the selective formation of 1, 3-butadiene in the conversion of ethanol. Physical Chemistry Chemical Physics 18: 25191-25209. View
  25. Alencar AB, Barboza AP, Archanjo BS, Chacham H, Neves BR (2015) Experimental and theoretical investigations of monolayer and few-layer talc. 2D Materials 2: 015004. View
  26. Hall S, Stewart J (1973) The crystal structure refinement of chalcopyrite, CuFeS2. Acta Crystallographica Section B 29: 579-585. View
  27. Oliveira CD, Duarte HA (2010) Disulphide and metal sulphide formation on the reconstructed (0 0 1) surface of chalcopyrite: a DFT study. Applied Surface Science 257: 1319-1324. View
  28. Oliveira CD, Lima GF, Abreu HA, Duarte HA (2012) Reconstruction of the Chalcopyrite Surfaces  A DFT Study. The Journal of Physical Chemistry C 116: 6357-6366. View
  29. Wen SM, Deng JS, Xian YJ, Liu D (2013) Theory analysis and vestigial information of surface relaxation of natural chalcopyrite mineral crystal. Transactions of Nonferrous Metals Society of China 23: 796-803. View
  30. Oertzen GUV, Harmer S, Skinner WM (2006) XPS and ab initio calculation of surface states of sulfide minerals: pyrite, chalcopyrite and molybdenite. Molecular Simulation 32: 1207-1212. View
  31. Li Y, Kawashima N, Li J, Chandra A, Gerson AR (2013) A review of the structure, and fundamental mechanisms and kinetics of the leaching of chalcopyrite. Advances in colloid and interface science 197: 1-32. View
  32. Sarvaramini A, Larachi F (2017) Understanding the interactions of thiophosphorus collectors with chalcopyrite through DFT simulation. Computational Materials Science 132: 137-145. View
  33. Majuste B, Ciminelli V, Osseo-Asare K, Dantas M, Magalhães-Paniago R, et al. (2012) Electrochemical dissolution of chalcopyrite: Detection of bornite by synchrotron small angle X-ray diffraction and its correlation with the hindered dissolution process. Hydrometallurgy 111: 114-123. View
  34. Deng JS, Wen SM, Liu D, Bai SJ, Cao QB, et al. (2013) Internal Geometric and Electronic Structures of Natural Bornite Crystal. in Applied Mechanics and Materials. 2013. Trans Tech Publ. View
  35. Deng J, Lei Y, Wen S, Chen Z (2015) Modeling interactions between ethyl xanthate and Cu/Fe ions using DFT/B3LYP approach. International Journal of Mineral Processing 140: 43-49. View
  36. Sun Z (2016) Research on copper sulfide flotation and the efficient inhibitor of talc. Gold.
  37. Pan G (2010) Effect of Sodium Carboxymethyl Cellulose on Flotability and Dispersion of Talc. Metal Mine. View
  38. Luo C, Zhang X, Su X (2017) Application of CMC Depressant during the Flotation of Copper-Nickel Sulphide Ore in Qinhai. Nonferrous Metals Engineering 7: 55-59.
  39. Krizova H, Wiener J (2013) Development of carboxymethyl cellulose/ polyphenols gels for textile applications. Autex Research Journal 13: 33-36. View
  40. Feng B, Peng J, Guo W, Zhang W, Ai G, et al. (2018) The effect of changes in pH on the depression of talc by chitosan and the associated mechanisms. Powder Technology 325: 58-63. View
  41. Feng B, Peng J, Guo W, Zhu X, Huang W, et al. (2018) The stimulus response of chitosan and its depression effect on talc flotation. Mineral Processing and Extractive Metallurgy 127: 56-61. View
  42. Thombare N, Jha U, Mishra S, Siddiqui M (2016) Guar gum as a promising starting material for diverse applications: A review. Int J Biol Macromol 88: 361-372. View
  43. Wang J, Somasundaran P, Nagaraj (2005) Adsorption mechanism of guar gum at solid–liquid interfaces. Minerals Engineering 18: 77-81. View
  44. Ekmekci BZ, Bradshaw D, Harris P (2007) Adsorption of guar gum and CMC on pyrite. Minerals engineering 20: 996-1002. View
  45. Mhlanga S, O’connor C, Mcfadzean B (2012) A study of the relative adsorption of guar onto pure minerals. Minerals Engineering 36: 172-178. View
  46. Feng B, Peng J, Zhu X, Luo X (2017) The Role of Acacia in Flotation Separation of Chalcopyrite and Talc. Acta Mineralogica Sinica 37: 352-356. View
  47. Zhao K, Gu G, Wang X, Yan W, Hu Y, et al. (2018) The effect of depressant sesbania gum on the flotation of a talc-containing scheelite ore. Journal of Materials Research and Technology. View
  48. Wei G, Bo F, Jinxiu P, Wenpu Z, Xianwen Z, et al. (2018) Depressant behavior of tragacanth gum and its role in the flotation separation of chalcopyrite from talc. Journal of Materials Research and Technology. View
  49. Zhao K, Gu G, Wang C, Rao X, Wang X, et al. (2015) The effect of a new polysaccharide on the depression of talc and the flotation of a nickelcopper sulfide ore. Minerals Engineering 77: 99-106. View
  50. Ma X, Pawlik M (2007) The effect of lignosulfonates on the floatability of talc. International Journal of Mineral Processing 83: 19-27. View
  51. Fu Y, Zhu Z, Yao J, Han H, Yin W, et al. (2018) Improved depression of talc in chalcopyrite flotation using a novel depressant combination of calcium ions and sodium lignosulfonate. Colloids and Surfaces A: Physicochemical and Engineering Aspects 558: 88-94. View
  52. Xu C, Ferdosian F (2017) Utilization of Lignosulfonate as Dispersants or Surfactants. Springer Berlin Heidelberg. View
  53. Ma X, Pawlik M, Zhang Y, Yu T (2008) The effect of lignosulfonates on the floatability of talc (In Chinese). Metallic Ore Dressing Abroad 45: 28-33. View
  54. Beattie DA, Huynh L, Kaggwa GBA, Ralston J (2006) The effect of polysaccharides and polyacrylamides on the depression of talc and the flotation of sulphide minerals. Minerals Engineering 19: 598-608. View
  55. Chen D, Xue W, Yang J, Dong Y, Li X (2013) A new flotation separation method for copper sulfide minerals and talc.
  56. Wang X, Liu R, Ma L, Qin W, Jiao F, et al. (2016) Depression mechanism of the zinc sulfate and sodium carbonate combined inhibitor on talc. Colloids and Surfaces A: Physicochemical and Engineering Aspects 501: 92-97. View
  57. Zhang M (2011) Study on synchronous depression of multi mineral phase magnesium silicate minerals in sulfide ore flotation system. Central South University.
  58. Lu Y, Zhang M, Feng Q, Ou L, Zhang G, et al. (2012) Sync-suppressionPrinciple of Serpentine and Talc. Transactions of Nonferrous Metals Society of Chin 22: 560-565. View
  59. Khraisheh M, Holland C, Creany C, Harris P, Parolis L, et al. (2005) Effect of molecular weight and concentration on the adsorption of CMC onto talc at different ionic strengths. J International Journal of Mineral Processing Parolis 75: 197-206. View
  60. Wang J, Somasundaran P (2005) Adsorption and conformation of carboxymethyl cellulose at solid-liquid interfaces using spectroscopic, AFM and allied techniques. Journal of Colloid and Interface Science 291: 75-83. View
  61. Qian G, Bo F, Danping Z, Jujie G (2017) Flotation separation of chalcopyrite from talc using carboxymethyl chitosan as depressant. Physicochemical Problems of Mineral Processing. 53: 1255-1263. View
  62. Morris GE, Fornasiero D, Ralston J (2002) Polymer depressants at the talc– water interface: adsorption isotherm, microflotation and electrokinetic studies. J International Journal of Mineral Processing Ralston 67: 211-227. View
  63. Burdukova E, Leerdam GCV, Prins FE, Smeink RG, Bradshaw DJ, et al. (2008) Effect of calcium ions on the adsorption of CMC onto the basal planes of New York talc - A ToF-SIMS study. J Minerals Engineering Laskowski 21: 1020-1025. View
  64. Cuba-Chiem LT, Huynh L, Ralston J, Beattie DA (2008) In situ particle film ATR FTIR spectroscopy of carboxymethyl cellulose adsorption on talc: binding mechanism, pH effects, and adsorption kinetics. Langmuir 24: 8036-8044. View
  65. Cuba-Chiem LT, Huynh Le, Ralston J, Beattie DA (2008) In situ particle film ATR-FTIR studies of CMC adsorption on talc: The effect of ionic strength and multivalent metal ions. J Minerals Engineering Beattie 21: 1013-1019. View
  66. Gaochan (2010) Effect of Sodium Carboxymethyl Cellulose on Flotability and Dispersion of Talc. J Metal Mine Pan.
  67. QI C, Ou L, Qiu Z, Li W, Zhang P, et al. (2015) Nonferrous Metals Science and Engineering. Depressing effect of different types of CMC on the surfaceof two nonpolar minerals. 6: 88-94.
  68. Shortridge PG, Harris PJ, Bradshaw DJ, Koopal LK (2000) The effect of chemical composition and molecular weight of polysaccharide depressants on the flotation of talc. J International Journal of Mineral Processing Schinckel 59: 215-224. View
  69. Ravi Kumar MNR (2000) A review of chitin and chitosan applications ☆. J Reactive and Functional Polymers 46: 1-27. View
  70. Knidri HE, Belaabed R, Addaou A, Laajeb A, Lahsini A, et al. (2018) Extraction, chemical modification and characterization of chitin and chitosan. International Journal of Biological Macromolecules 120: 1181-1189. View
  71. Kumar MNR (2000) A review of chitin and chitosan applications. Reactive and functional polymers 46: 1-27. View
  72. Lee DW, Lim C, Israelachvili JN, Hwang DS (2013) Strong adhesion and cohesion of chitosan in aqueous solutions. Langmuir 29: 14222-14229. View
  73. Feng B, Peng J, Guo W, Zhu X, Huang W (2017) The stimulus response of chitosan and its depression effect on talc flotation. J Mineral Processing and Extractive Metallurgy Imm Transactions 127: 1-6. View
  74. Tiraferri A, Maroni P, RodrãGuez DC, Borkovec M (2014) Mechanism of chitosan adsorption on silica from aqueous solutions. Langmuir 30: 4980- 4988. View
  75. Huang P, Cao M, Liu Q (2011) Using chitosan as a selective depressant in the differential flotation of Cu-Pb sulfides. International Journal of Mineral Processing 93: 8-15. View
  76. Huang P, Cao M, Liu Q (2012) Adsorption of chitosan on chalcopyrite and galena from aqueous suspensions. Colloids, Surfaces A Physicochemical and Engineering Aspects 409: 167-175. View
  77. Yu K, Wong D, Parasrampuria J, Friend D, Gum G, et al. (1996) Analytical Profiles of Drug Substances and Excipients. Editor. Academic Press. View
  78. Gong H, Liu M, Chen J, Han F, Gao C, et al. (2012) Synthesis and characterization of carboxymethyl guar gum and rheological properties of its solutions. Carbohydrate Polymers 88: 1015-1022. View
  79. Jenkins P, Ralston J (1998) The adsorption of a polysaccharide at the talcaqueous solution interface. Colloids and Surfaces A: Physicochemical and Engineering Aspects 139: 27-40. View
  80. Dionísio M, Grenha A (2012) Locust bean gum: exploring its potential for biopharmaceutical applications. Journal of pharmacy & bioallied sciences 4: 175. View
  81. Feng B, Peng J, Zhang W, Ning X, Guo Y, et al. (2018) Use of locust bean gum in flotation separation of chalcopyrite and talc. Minerals Engineering 122: 79-83. View
  82. Zhao KL, Gu GH, Wang H, Wang CL, Wang XH, et al. (2015) Influence of depressant foenum-graecum on the flotation of a sulfide ore which contains hydrophobic gangue. International Journal of Mineral Processing 141: 68-76. View
  83. Yang D, Qiu X, Chen H (2001) Chemistry Bulletin, The Lignosulfonates for Surfactant 64: 416-420. View
  84. Xu L, Mao W, Huang J, Li S, Huang K, et al. (2016) Economical, green route to highly fluorescence intensity carbon materials based on ligninsulfonate/ graphene quantum dots composites: Application as excellent fluorescent sensing platform for detection of Fe 3+ ions. Sensors Chen and Actuators B Chemical 230: 54-60. View
  85. Yan M, Yang D, Deng Y, Chen P, Zhou H, et al. (2010) Influence of pH on the behavior of lignosulfonate macromolecules in aqueous solution. Colloids and Surfaces A: Physicochemical and Engineering Aspects 371: 50-58. View
  86. Ansari A, Pawlik M (2007) Floatability of chalcopyrite and molybdenite in the presence of lignosulfonates. Part II. Hallimond tube flotation. Minerals Engineering 20: 609-616. View
  87. Yan L, Masliyah JH, Xu Z (2013) Interaction of divalent cations with basal planes and edge surfaces of phyllosilicate minerals: Muscovite and talc. J Colloid Interface Sci 404: 183-191. View
  88. Huang P, Fuerstenau DW (2001) The effect of the adsorption of lead and cadmium ions on the interfacial behavior of quartz and talc. Colloids and Surfaces A: Physicochemical and Engineering Aspects 177: 147-156. View
  89. Feng Q, Liu G, Yu Z, Lu Y, Ou L, et al. (2006) Influence and mechanism of ferric and ferrous ions on flotation of talc. Journal of Central South University 37: 66-70. View
  90. Zhang Q, Yuan Z, Liu J, Li L, Lu S, et al. (2016) Influence and Mechanism of Metal Ions on Flotation Behavior of Talc. Metal Mine. View
  91. Liu G, Feng Q, Ou L, Lu Y, Zhang G, et al. (2005) Journal of The Chinese Ceramic Society, Influence and mechanism of copper ions and nickel ions on flotation of talc. 33: 1018-1022. View
  92. Sun Z (2016) Gold, Research on copper sulfide flotation and the efficient inhibitor of talc 37: 54-58. View
  93. Jin S, Shi Q, Feng Q, Zhang G, Chang Z (2018) The role of calcium and carbonate ions in the separation of pyrite and talc. Minerals Engineering 119: 205-211. View
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