[1] Broman, P.G. (Editor), 1980. Water reuse at sulphide ore concentrators in Sweden: practice, experience and current developments. In: M.J Jones, Editor, Complex Sulphide Ores. Institution of Mining and Metallurgy, London, 28-39 pp.
[2] Rao, S.R. and Finch, J.A., 1989. A review of water re-use in flotation. Minerals Engineering, 2(1): 65-85.
[3] Liu, L., Rao, S.R. and Finch, J.A., 1993. Technical note laboratory study of effect of recycle water on flotation of a Cu/Zn sulphide ore. Minerals Engineering, 6(11): 1183-1190.
[4] Basilio, C.I., Kartio, I.J. and Yoon, R.H., 1996. Lead activation of sphalerite during galena flotation. Minerals Engineering, 9(8): 869-879.
[5] Haran, N.P., Boyapati, E.R., Boontanjai, C. and Swaminathan, C., 1996. Kinetics Studies on Effect of Recycled Water on Flotation of Copper Tailings from Benambra Mines, Victoria. Wiley Subscription Services, Inc., A Wiley Company, pp. 197-211.
[6] Levay, G., Smart, R.S.C. and Sinner, W.M., 2001. The impact of water quality on flotation performance. The Journal of The South African Institute of Mining and Metallurgy 101(2): 69-75.
[7] Chen, J.-m., Liu, R.-q., Sun, W. and Qiu, G.-z., 2009. Effect of mineral processing wastewater on flotation of sulfide minerals. Transactions of Nonferrous Metals Society of China, 19(2): 454-457.
[8] Bakalarz, A., Duchnowska, M., Luszczkiewicz A., The effect of process water salinity on flotation of copper ore from Lubin mining region, E3S Web of Conferences 18 , 01007 ( 2017 )
[9] Kant, C., Rao, S.R. and Finch, J.A., 1994. Distribution of surface metal ions among the products of chalcopyrite flotation. Minerals Engineering, 7(7): 905-916.
[10] Peng, Y., Grano, S., Fornasiero, D. and Ralston, J., 2003a. Control of grinding conditions in the flotation of chalcopyrite and its separation from pyrite. International Journal of Mineral Processing, 69(1-4): 87-100.
[11] Peng, Y., Grano, S., Fornasiero, D. and Ralston, J., 2003b. Control of grinding conditions in the flotation of galena and its separation from pyrite. International Journal of Mineral Processing, 70(1-4): 67-82.
[12] Fullston, D., Fornasiero, D. and Ralston, J., 1999. Zeta potential study of the oxidation of copper sulfide minerals. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 146(1-3): 113-121.
[13] Javadi Nooshabadi, A. & Hanumantha Rao, K., (2013). Formation of hydrogen peroxide by pyrite and its influence on flotation. Minerals Engineering, Volume 49, p. 128–134.
[14] Javadi Nooshabadi, A. & Hanumantha Rao, K., (2013). Formation of hydrogen peroxide by chalcopyrite and its influence on flotation. Minerals and Metallurgical Processing, Volume 30(4), p. 212-219.
[15] Javadi Nooshabadi, A. & Hanumantha Rao, K., (2013). Formation of hydrogen peroxide by sphalerite. International Journal of Mineral Processing, Volume 125, p. 78–85.
[16] Javadi Nooshabadi, A. & Hanumantha Rao, K., (2014). Formation of hydrogen peroxide by galena and its influence on flotation. Advanced Powder Technology, Volume 25(3), p. 832-839
[17] Sunder, M.; Hempel, D. C., 1997. Oxidation of tri- and perchloroethene in aqueous solution with ozone and hydrogen peroxide in a tube reactor, Water Research. 31, 33-40.
[18] Leitner K. , N.; Dore´, M., 1997. Mechanism of the reaction between hydroxyl radicals and glycolic, glyoxylic, acetic and oxalic acids in aqueous solution: Consequence on hydrogen peroxide consumption in the Water Research. 31, 1383- 1397.
[19] Roche, P.; Prados, M., Removal of pesticides by use of ozone or hydrogen peroxide, Ozone: Science & Engineering. Eng. 1995, 17, 657-672.
[20] Kosaka K., Yamada H., Matsui S., Echigo S., Shishida K., 1998. A Comparison among the Methods for Hydrogen Peroxide Measurements To Evaluate Advanced Oxidation Processes: Application of a Spectrophotometric Method Using Copper(II) Ion and 2,9-Dimethyl-1,10-phenanthroline, Environ. Sci. Technol., 32, 3821-3824.
[21] Baga, A. N.; Johnson G. R. A.; Nazhat, N. B.; Saadalla-Nazhat, R. A., 1988. Anal. Chim. Acta, 204, 349-353.
[22] Jones, G., van Hille, R.P.,Corin, K.C., Harrison, S.T.L., 2011. The generation of toxic reactive oxygen species (ROS) from mechanically activated sulphide concentrates and its effect on thermophilic bioleaching, Minerals Engineering 24(11):1198-1208.
[23] Jones, G., van Hille, R.P., Harrison, S.T.L., 2012. Reactive oxygen species generated in the presence of fine pyrite particles and its implication in thermophilic mineral bioleaching Appl. Micrbiol. Biotechnol. doi: 10.1007/s00253-012-4116-y.
[24] Volk, C.; Roche, P.; Renner, C.; Paillard, H.; Joret, J. C., Effects of ozone-hydrogen peroxide combination on the formation of biodegradable dissolved organic carbon, Ozone: Science & Engineering. 1993, 15, 405-418.
[25] Houot, R. and Duhamet, D., 1992. The use of sodium sulphite to improve the flotation selectivity between chalcopyrite and galena in a complex sulphide ore. Minerals Engineering, 5(3-5): 343-355.
[26] Mobarhan, M., Ahmadi, R., Karimi, R.Gh, 2021, Comparison of the Effect of Tap Water and Process Water on the Galena and Sphalerite Minerals Flotation, Journa of Mineral Resources Engineering, Vol 6., 71-81.
[27] Hu, Y., Sun, W., Wang, D., 2009, Electrochemistry of Flotation of Sulphide Minerals, book, Springer-Verlag Berlin Heidelberg, Jointly published with Tsinghua University Press.
[28] de Donato, P. et al., 1999. Chemical surface modifications of sulphide minerals after comminution. Powder Technology, 105(1-3): 141-148.
[29] Persson, P. and Persson, I., 1991. Interactions between sulfide minerals and alkylxanthate ions 2. A vibration spectroscopic and
atomic absorption spectrophotometric study of the interactions between sphalerite and copper-activated sphalerite and ethyl- and n-decylxanthate ions in aqueous and acetone solutions. Colloids and Surfaces, 58(1-2): 149-160.
[30] Leppinen, J.O., 1990. FTIR and flotation investigation of the adsorption of ethyl xanthate on activated and non-activated sulfide minerals. International Journal of Mineral Processing, 30(3-4): 245-263.
[31] Leppinen, J.O., Basilio, C.I. and Yoon, R.H., 1989. In-situ FTIR study of ethyl xanthate adsorption on sulfide minerals under conditions of controlled potential. International Journal of Mineral Processing, 26(3-4): 259-274.