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Effect of particle shape properties on selective separation of chromite from serpentine by flotation

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Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
Although many studies have been conducted on the morphological variations and its effects on flotation recoveries of a single mineral system, a systematic study for the flotation behavior of mixtures of minerals has not dwelled much. In this study, th flotation behavior of chromite and serpentine minerals was investigated to distinguish and isolate the contribution of morphology in single and binary systems. For this purpose, the shape analyses for the minerals ground as single and mixture were performed, and their flotation behaviors determined with the micro-flotation experiments. Additionally, the zeta potential measurements were carried out in the presence of sodium oleate as a collector. The shape analysis of the ground samples showed that while the roundness values of chromite and serpentine (gangue) minerals as single were quite different, the particle shape of chromite favored serpentine in the mixture system which in turn suggested that the mineral with the high hardness value dominates the shape characteristics in binary grinding conditions. Accordingly, while the flotation characteristics of chromite in the mixture followed the same trend with the flotation of a single chromite system as a function of particle shape, almost a reverse trend was obtained for the shape and flotation of serpentine in the mixture compared to a single serpentine system. Thus, at roundness values of chromite particles from 0.797 to 0.732, the flotation recoveries of chromite in the mixture increased from 51.0% to 75.4%. On the other hand, likewise chromite, the flotation recoveries of serpentine increased from 20.0% to 37.3% proportional to the roundness range of 0.757 and 0.709. These findings in turn showed that the grinding conditions dictate the soft component to be monitored by the harder and denser component which dominates the angularity and floatability of the mixture.
Słowa kluczowe
Rocznik
Strony
818--828
Opis fizyczny
Bibliogr. 31 poz., rys., tab.
Twórcy
autor
  • Adana Alparslan Türkeş Science and Technology University, Faculty of Engineering, Department of Mining Engineering, Adana, Turkey
  • Istanbul Technical University, Department of Mineral Processing Engineering Department, Istanbul-Turkey
autor
  • Istanbul Technical University, Department of Mineral Processing Engineering Department, Istanbul-Turkey
  • Istanbul University-Cerrahpaşa, Department of Mining Engineering, Buyukcekmece, Istanbul-Turkey
  • Harran University, Şanlıurfa Technical Sciences, Vocational School, Şanlıurfa-Turkey
  • Istanbul Technical University, Department of Mineral Processing Engineering Department, Istanbul-Turkey
  • Harran University, Şanlıurfa Technical Sciences, Vocational School, Şanlıurfa-Turkey
Bibliografia
  • BULUT, G., CEYLAN, A., SOYLU, B., GOKTEPE, F., 2011. Role of starch and metabisulphite on pure pyrite and pyritic copper ore flotation. Physicochemical Problems of Mineral Processing, 48(1), 39-48.
  • CHEN, Y., XIA, W., XIE, G., 2018. Contact angle and induction time of air bubble on flat coal surface of different roughness. Fuel, 222, 35-41.
  • FENG, D. and ALDRICH, C., 2000. A comparison of the flotation of ore from the Merensky Reef after wet and dry grinding. International Journal of Mineral Processing, 60(2), 115-129.
  • FORSSBERG, E. and ZHAI, H., 1985. Shape and surface properties of particles liberated by autogenous grinding. Scand. J. Metall, 1(14), 25-32.
  • GALLIOS, G.P., DELIYANNI, E.A., PELEKA, E.N., MATIS, K.A., 2007. Flotation of chromite and serpentine. Separation and Purification Technology, 55, 232-237.
  • GUNEY, A, ONAL, G., CELIK, M.S., 1999. A new flowsheet for processing chromite fines by column flotation and the collector adsorption mechanism. Minerals Engineering, 12(9), 1041–1049.
  • GUVEN, O. and CELIK, M.S., 2016a. Interplay of particle shape and surface roughness to reach maximum flotation efficiencies depending on collector concentration. Mineral Processing and Extractive Metallurgy, 37(6), 412-417.
  • GUVEN, O. KARAKAS, F., KODRAZI, N., CELIK, M.S. 2016b. Dependence of morphology on anionic flotation of alumina. International Journal of Mineral Processing, 156, 69-74.
  • GUVEN, O., CELIK, M.S., and DRELICH, J., 2015. Flotation of methylated roughened glass particles and analysis of particle-bubble energy barrier. Minerals Engineering, 79, 125-132.
  • GUVEN, O., OZDEMIR, O., KARAAGACLIOGLU, I.E., and CELIK, M.S., 2015. Surface morphologies and floatability of sand-blasted quartz particles. Minerals Engineering, 70, 1-7.
  • HASSAS, B.V., CALISKAN, H., GUVEN, O., KARAKAS, F., CINAR, M., and CELIK, M.S., 2016. Effect of roughness and shape factor on flotation characteristics of glass beads. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 492, 88-99.
  • KIM, H.N., KIM, J.W., KIM, M.S., LEE, B.H., KIM, C.J., 2019. Effects of ball size on the grinding behaviour of talc using a high-energy ball mill. Minerals, 9, 668, 1-16.
  • LI, Z., RAO, F., CORONA-ARROYO, M.A., BEDOLLA-JACUINDE, A., SONG, S., 2019. Comminution effect on surface roughness and flotation of malachite particles. Minerals Engineering, 132, 1-17.
  • LITTLE, L., BECKER, M., WIESE, J., and MAINZA, A.N., 2015. Auto-SEM particle shape characterization: Investigating fine grinding of UG2 ore. Minerals Engineering, 82, 92–100.
  • PALMER, B.R., FUERSTENAU, M.C., and APLAN, F.F., 1975. Mechanisms involved in the flotation of oxides and silicates with anionic collectors. Part 1. Trans AIME, 258: 261-263.
  • REZAI, B., RAHIMI, M., ASLANI, M.R., ESLAMIAN, A., and DEHGHANI, F., 2010. Relationship between surface roughness of minerals and their flotation kinetics. In: Proceedings of the XI International Mineral Processing and Technology Congress, 232-238.
  • SCHWARCZ, H.P. and SHANE, K.C., 1969. Measurement of particle shape by Fourier Analysis. Sedimentology, 13, 213-231.
  • SIRKECI, A.A., GUL, A., BULUT, G., OZER, M., GUVEN, O., PEREK, K.T., 2018. The effect of crushing type on the efficiency of flowing film separation. Physicochemical Problems of Mineral Processing, 54(2), 601-608.
  • SYSILA, S & LAAPAS, H & HEISKANEN, KARI & RUOKONEN, E., 1996. The effect of surface potential on the flotation of chromite. Minerals Engineering, 9, 519-525.
  • TURK, T., PEREK, K.T., KARAKAS, F., CELIK, M.S., 2018. Effect of grinding time on particle shape in barite/SDS flotation system. Proceedings of 16th International Mineral Processing Symposium (IMPS 2018), 378-383.
  • UCBAS, Y., BOZKURT, V., BILIR, K., IPEK, H., 2014. Concentration of chromite by means of magnetic carrier using sodium oleate and other reagents. Physicochemical Problems in Mineral Processing, 50(2), 767-782.
  • ULUSOY, U., YEKELER, M., and HICYILMAZ, C., 2003. Determination of the shape, morphological and their wettability properties of quartz and their correlations. Minerals Engineering, 16, 951-954.
  • ULUSOY, U., HICYILMAZ, C., YEKELER, M., 2003. Role of shape properties of calcite and barite particles on apparent hydrophobicity. Chemical Engineering and Processing, 43, 1047-1053.
  • VERRELLI, D.I., BRUCKARD, W.J., KOH, P.T.L., SCHWARZ, M.P., and FOLLINK, B., 2014. Particle shape effects in flotation. Part 1: Microscale experimental observations. Minerals Engineering, 58, 80–89.
  • VIZCARRA, T.G., HARMER, S.L., WIGHTMAN, E. M., JOHNSON, N.W., and MANLAPIG, E.V., 2010. The effect of breakage mechanism on the mineral liberation properties of sulphide ores. Minerals Engineering, 23, 374–382.
  • WIESE, J., AND O’CONNOR, C., 2016. An investigation into the relative role of particle size and particle shape and froth behaviour on the entrainment of chromite. International Journal of Mineral Processing, 156, 127-133.
  • XIA, W. and LI, Y., 2015. Role of roughness on wettability of taixi anthracite coal surface before and after the heating process. Energy & Fuels, 30, 281-284.
  • XIA, W., 2017. Role of particle shape in the floatability of mineral particle: An overview of recent advances. Powder Technology, 317, 114-116.
  • YEKELER, M., ULUSOY, U., and HIÇYILMAZ, C., 2004. Effect of particle shape and roughness of talc mineral ground by different mills on the wettability and floatability. Powder Technology, 140(1-2), 68-78.
  • ZHANWEI, Y., FUGUO, L., PENG, Z., BO, C., 2014. Description of shape characteristics through fourier and wavelet analysis. Chinese Journal of Aeronautics, 27(1), 160-168.
  • ZHANG, X., HAN, Y., GAO, P., LI, Y., 2020. Effects of grinding media on grinding products and flotation performance of chalcopyrite. Minerals Engineering, 145, 106070.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-3ba5f631-a0e7-4be6-ad39-65ee605918f7
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