Abstract
The pH is a critical variable and influences the surface state of the float mineral particles and the flotation efficiency. Jamesonite is a sulphosal of lead and antimony with iron content Pb4FeSb6S14. In this research, the study of the surface state of jamesonite was carried out by means of infrared spectroscopy of particles obtained in flotation without a collector in acid, neutral and alkaline medium. In an alkaline medium, the flotation of the mineral decreases or is depressed, mainly due to the oxidation of the surface iron forming iron oxyhydroxide, α-FeOOH goethite, considered as a hydrophilic species, as well as the division of the main sulfate band indicating the formation of metal sulfates. Meanwhile, when the flotation is carried out without a collector at pH 5.9 and 7.8, a 70% w / w recovery is achieved, and the absorption bands of the covalently bonded species are significantly attenuated.
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References
Luke L, Chang. Xilin Li & Chusheng Zheng. (1987) The jamesonita benavidesite series. Can Mineral 25:667–672
Chang LY, Knowles CR (1977) Phase relations in the systems PbS-Fe1-xS-Sb2S3 and PbSFe1-xS-Bi2S3 Canadian Mineralogist 15:374–379
Yang Xu, liang, Hua Yi Xin. (2005) Research on a new process for separating lead and antimony from jamesonite. China’s Nonferrous Met Ind 10(5):44–45
Chen XF, Peng RM (2008) Effect of calcium hypochlorite on the flotation separation of galena. Nonferr Met 60(3):129–132
Chen X, Guohua Gu, Zhu R, Wang C (2019) Selective separation of chalcopyrite from jamesonite with guar gum. Physicochem Probl Miner Process 55(1):237–247
Chen JH, Li YQ, Long QR, Wei ZW, Chen Y (2011) Improving the selective flotation of jamesonite using tannin extract. Int J Miner Process 100: 54−56
Forssberg LT, K. S. E. (1989) Beneficiation characteristics of antimony minerals a review—part 1. Miner Eng 2(3):321–336
Sun W, Sun C, Liu RQ, Cao XF, Tao HB (2016) Electrochemical behavior of galena and jamesonite flotation in high alkaline pulp. Trans Nonferrous Met Soc China 26:551–556
Lager T, Forssberg KSE (1989) Beneficiation characteristics of antimony minerals a review—part 1. Miner Eng 2(3):321–336
Liu RQ, Sun W, Hu YH, Xiong DL (2006) Depression mechanism of small molecular mercapto organic depressants on flotation behavior of complex sulfide. Chinese J Nonferrous Metals 16(4): 746−751
Reyes Pérez M, Palacios Beas EG, Barrientos FR, Pérez Ladra M (2019) The minerals, metals & materials society. In: Li B et al (ed) Characterization of minerals, metals
Liu R, Guo Y, Wang Li, Sun W, Tao H, Yuehua Hu (2015) Effect of calcium hypochlorite on the flotation separation of galena and jamesonite in high-alkali systems. Miner Eng 84(2015):8–14
Guy PJ, Trahar WJ (1984) the influence of grinding and flotation environments on the laboratory batch flotation of galena. I J Miner Process 12:15–38
Yu Rl, Hu YH, Qiu GZ, Qin WQ (2004) Corrosive electrochemistry of jamesonite by cyclic voltammetry. J Cent South Univ Technol 11(3)
Nakamoto K (1997) Wiley Interscience, New York
M. Reyes P. (2013) Modificación superficial de mineral de pirita y precipitados de Hierro: comportamiento en medios acuosos y de molienda. Tesis Doctoral Morelia, Michoacán, México
Zachwieja JB, McCarron JJ, Walker GW, Buckley AN (1989) Correlation between the surface composition and collectorless flotation of chalcopyrite. J Colloid Interface Sci 132:462–468
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To the Autonomous University of the State of Hidalgo, to the PRODEP Teacher Professional Development Program, and to the National Polytechnic Institute ESIQUIE.
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Medina, J.T. et al. (2021). Surface Characterization of Concentrated Jamesonite, in the Collectorless Flotation, in Acid, Neutral, and Alkaline Medium. In: Li, J., et al. Characterization of Minerals, Metals, and Materials 2021. The Minerals, Metals & Materials Series. Springer, Cham. https://doi.org/10.1007/978-3-030-65493-1_55
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