Abstract
Flotation kinetics is briefly introduced and its history is reviewed. Main theoretical approaches are discussed, and the kinetic models are presented in detail. The application of flotation kinetics to modeling and simulation of the circuits is shortly surveyed, then some industrial results are used to show how the models fit to experimental results.
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References
Arbiter, N., and Harris, C.C. (1962) Flotation kinetics, in D.W. Fuerstenau (ed.) Froth Flotation, AIME, New York, pp. 215–246.
Ek, C. (1968) Contribution à l’étude cinétique de la flottation, Collection des Publications de la Faculté des Sciences Appliquées de l’Université de Liège 6, 3–61.
Weiss, N.L. (1985) SME Mineral Processing Handbook, SME-AIME, New York.
Arbiter, N., Harris, C.C., and Yap, R.F. (1968) A hydrodynamic approach to flotation scale-up, Proceedings VIIIth Intern. Miner. Process. Congress (Leningrad), paper D-19.
Agar, G.E. (1985) The optimization of flotation circuit design from laboratory rate data, Proceedings XVth Intern. Miner. Process. Congress (Cannes), 2, pp. 100–111.
Kalapudas, R. (1985) A study of scaling-up of laboratory batch flotation data to industrial size flotation, ibid. 2, pp. 112–121.
Jameson, G.J., Nam, S., and Moo-Young, M. (1977) Physical factors affecting recovery rates in flotation, Miner. Sci. Engng. 9, 103–118.
Schulze, H.J. (1984) Physico-chemical Elementary Processes in Flotation, Elsevier, Amsterdam; see also Schulze, in this volume.
Niemi, A. (1966) On the dynamics of a pneumatic flotation cell, Acta Polytechn. Scan., Chem. incl. Metall.Series 49.
Niemi, A. (1966) A study of dynamic and control properties of industrial flotation processes, ibid. 48.
Rao, S.R. (1974) Surface forces in flotation, Miner. Sci. Engng. 6, 45–53.
Laskowski, J. (1974) Particle-bubble attachment in flotation, ibid. 6, 223–235.
Derjaguin, B.V., and Dukhin, S.S. (1961) Theory of flotation of small and medium-size particles, Bull. IMM 651, 221–246.
Harris, C.C., and Rimmer, H.W. (1966) Study of a two-phase model of the flotation process, Trans. IMM Series C, 153–162
Tomlinson, H.S., and Fleming, M.G. (1963) Etudes cinétiques de flottation, Proceedings VIth Intern. Miner. Process. Congress (Cannes), 677–691.
Garcia-Zuniga, H. (1935) The efficiency obtained by flotation is an exponential function of time, Boletin Minero de la Sociedad National de Minero 47, Santiago, 83–86.
Beloglazov, K.F. (1939) Kinetics of flotation process, Tsvetnye Metally 9, 70–76.
Schuhmann, R. (1942) Flotation kinetics I -Methods for steady-state study of flotation problems, J. Phys. Chem. 46, 891–902.
Gaudin, A.M., Schumann, R., and Schlechten, A.W. (1942) Flotation kinetics II -The effect of size on the behaviour of galena particles, ibid. 46, 902–910.
Sutherland, K.L. (1948) Physical chemistry of flotation: Part II: Kinetics of the flotation process, ibid. 52, 394–424.
Arbiter, N. (1951) Flotation rates and flotation efficiency, Min. Engng. 3, 791–796.
Morris, T.M. (1951) Discussion of ref. [21], ibid. 3, 991–992.
Ludt, R.W., and Dewitt, C.C. (1949) The flotation of copper silicate from silica, Trans. AIME (Mining) 184, 49–51.
Morris, T.M. (1952) Measurement and evaluation of the rate of flotation as a function of particle size, Min. Engng. 4, 794–798.
Hukki, R.T. (1953) Discussion of ref. [24], ibid. 5, 1122–1124.
Debruyn, P.L., and Modi, H.J. (1956) Particle size and flotation rate of quartz, ibid. 8, 415– 419.
Horst, W.R., and Morris, T.M. (1956) Can flotation rates be improved ?, Engng. Min. J. 157(October), 81–83.
Huber-Panu, H. (1956) Beiträge zur Kinetik der Flotation, Revue de Métallurgie (Bucarest) 1, 113–120.
Huber-Panu, H., and Georgescu, B. (1959) Sur les équations cinétiques des indices techniques de la flottation, ibid. 2, 189–211.
Huber-Panu, H., and Georgescu, B. (1961) Untersuchungen über den Einfluss der Belüftung auf die Flotation-kinetik, ibid. 6, 253–267.
Ek, C. (1967) Interprétation de la cinétique de flottation d’un mineral sulfuré de cuivre, Industrie Chimique Beige, 36e Congrès de Chimie Industrielle, Bruxelles, 2, 1–5.
Bushell, C.H.G. (1962) Kinetics of flotation, Trans. AIME (Mining) 222, 266–278.
Jowett, A., and Safvi, S.M.M. (1960) Refinements in methods of determining flotation rates, ibid. 212, 351–357.
Harris, C.C., Jowett, A., and Ghosh, S.K. (1963) Analysis of data from continuous flotation tests, ibid. 227, 444–447.
Jowett, A. (1966) Gangue mineral contamination of froth, Brit. Chem. Engng. 11, 330–333.
Jancarek, J. (1964) Ein Beitrag zur Theorie der Flotationsgeschwindigkeit, Bergakademie 4–5, 257–263.
Kakovskii, I.A., Grebnev, A.N., and Silina, E.I. (1961) The relationship between the floatability of mineral particles of various sizes, their structure and the consumption of collectors, Tsvetnye Metally 34( August), 7–17.
Imaizumi, T., and Inoue, T. (1963) Considératons cinétiques sur la flottation à la mousse, Proceedings VIth Int. Miner. Process. Congress (Cannes), pp. 699–715.
Loveday, B.K. (1966) An investigation into the kinetics of froth flotation, Ph. D. Thesis, University of Natal.
Loveday, B.K. (1966) Analysis of froth flotation kinetics, Trans. IMM 65, 219–225.
Inoue, T., and Imaizumi, T. (1968) Some aspects of the flotation kinetics, Proceedings VIIIth Intern. Miner. Process. Congress (Leningrad), paper S-15.
Haynman, V.J. (1975) Fundamental model of flotation kinetics, Proceedings Xlth Intern. Miner. Process. Congress (Cagliari), pp. 537–559.
Huber-Panu, H., Ene-Danalache, E., and Cojocariu, D.G. (1976) Mathematical models of batch and continuous flotation, in M.C. Fuerstenau (ed.) Flotation, AIME, New York, pp. 675–724.
Kapur, P.C., and Mehrotra, S.P. (1989) Modelling of flotation kinetics and design of optimum flotation circuits, in K.V.S. Sastry and M.C. Fuerstenau (eds.) Challenges in Mineral Processing, AIME, New York, pp. 300–322.
Mika, T.S., and Fuerstenau, D.W. (1968) A microscopic model of the flotation process, Proceedings VIIIth Intern. Miner. Process. Congress (Leningrad), paper S-4.
Dowling, E.C., Klimpel, R.R., and Aplan, F.F. (1985) Model discrimination in the flotation of a porphyry copper ore, Miner. Metall. Process. 2, 87–101.
Kelsall, D.F. (1961) Application of probability assessment of flotation systems, Trans. IMM 70, 191–204.
Meyer, W.C., and Klimpel, R.R. (1984) Rate limitations in froth flotation, Trans AIME (Mining) 274, 1852–1858.
Bull, W.R. (1966) The rates of flotation of mineral particles in sulphide ores, Austr. IMM Process. 220 (December), 69–78.
Agar, G.E., and Barrett, J.J. (1983) The use of flotation rate data to evaluate reagents, CIM Bull. 76(851), 157–162.
Agar, G.E. (1987) Simulation in mineral processing, in B. Yarar and Z.M. Dogan (eds.) Mineral Processing Design, NATO ASI Series E, no. 122, pp. 268–287.
Mehrotra, S.P., and Kapur, P.C. (1975) The effects of particle size and feed rate on the flotation rate distribution in a continuous cell, Int. J. Miner. Process. 2, 15–28.
Klimpel, R., and Hansen, R. (1981) Some factors influencing kinetics in sulfide flotation,SME-AIME, Preprint 81–14.
Laplante, A.R., Toguri, J.M., and Smith, H.W. (1983) The effect of air flow rate on the kinetics of flotation. Part 1: the transfer of material from the slurry to the froth, Int.J. Miner. Process. 11, 203–219.
Laplante, A.R., Smith, H.W., and Toguri, J.M. (1983) The effect of air flow rate on the kinetics of flotation. Part 2: the transfer of material from the froth over the cell lip, ibid. 11, 221–234.
Laplante, A.R., Smith, H.W., and Toguri, J.M. (1984) The effect of air flow rate on the kinetics of flotation. Part 3: selectivity, ibid. 12, 285–295.
Kaya, M., and Laplante, A.R. (1985) Investigation of batch and continuous flotation kinetics in a modified Denver laboratory cell, Proceedings 24th CIM Conf., paper 18.4.
Ahmed, N., and Jameson, G.J. (1985) The effect of bubble size on the rate of flotation of fine particles, Int.J. Miner. Process. 14, 195–215.
Spears, D.R., and Jordan, C.E. (1989) The effect of turbulence on the flotation rate of galena when using fine bubbles, in S. Chander and R.R. Klimpel (eds.) Advances in Coal and Mineral Processing using Flotation, SME, Littleton, pp. 77–84.
Klimpel, R.R., Hansen, R.D., Mayer, W.C., and Nimerick, K.H. (1979) Laboratory characterisation of the influence of reagent changes on coal flotation, SME-AIME, Preprint 79–11.
Klimpel, R.R. (1980) Selection of chemical reagents for flotation, SME-AIME, Preprint 80–34.
Klimpel, R.R. (1988) Methods of improving the economic performance of industrial scale mineral flotation circuits, SME-AIME, Preprint 88–171.
Agar, G.E., Styles, G.H., Lyons, B.G., and Kipkie, W.B. (1987) Selection of rock depressants based on laboratory kinetic studies, CIM Bull. 80(907), 45–51.
Marin, G., and Molina, E. (1988) Characterization of collectors through flotation rate data, in S.H. Castro Flores and J. Alvarez Moisan (eds.) Froth Flotation, Elsevier, Amsterdam, pp. 329–340.
Hosten, C., and Tezcan, A. (1990) The influence of frother type on the flotation kinetics of a massive copper sulphide ore, Minerals Engng. 3, 637–640.
Ball, B., Kapur, P.C., and Fuerstenau, D.W. (1970) Prediction of grade-recovery curves from a flotation kinetic model, Trans. AIME (Mining) 247, 263–269.
Morris, T.M., and Edwards, R.M. (1964) Analog computers find application in control of flotation circuits, Min. Engng. 16(8), 67–69.
Faulkner, B.P. (1966) Computer control improves metallurgy at Tennessee Copper’s flotation plant, ibid. 18(11), 53–57.
Cooper, H.R. (1966) Feedback process control of mineral flotation. Part I: Development of a model for froth flotation, Trans. AIME (Mining) 235, 439–446.
Agar, G.E., Stratton-Crawley, R., and Bruce, T.J. (1980) Optimisation the design of flotation circuits, CIM Bull. 73(824), 173–181.
Agar, G.E., and Kipkie, W.B. (1978) Predicting locked cycle flotation test results from batch data, ibid. 71(799), 119–125.
Bourassa, M., Barbery, G., Broussaud, A., and Conil, P. (1988) Flotation kinetics scale-up: comparison laboratory batch test to pilot plant processing, in E. Forssberg (ed.) Proceedings XVIth Int. Miner. Process. Congress, Elsevier, Amsterdam, pp. 579–588.
Barbery, G., Bourassa, M., and Dionne, L. (1988) Mise à l’échelle des circuits de flottation, Ind. Miner.-Mines et Carrières -Les Techniques 70, 8–14.
Vedrine, H., Broussaud, A., Conil, P., and De Matos, C.S. (1990) Modélisation de la cinétique de flottation d’un minerai sulfuré polymétallique, Ind. Miner.-Mines et Carrières -Les Techniques 72, 79–87.
Lewis, F.M., and Morris, T.M. (1962) Analysis of operating flotation plants. Part 1: Operating data from a sulfide flotation plant, the London mill, in D.W.Fuerstenau (ed.) Froth Flotation, AIME, New York, pp. 455–481.
Ek, C. (1970) Cinétique de flottation -Etudes de laboratoire -Essais industries, Rudy, 18(3–4), 113–121.
Forssberg, K.S.E., Frykfors, C.O., and Palsson, B.J. (1982) Study of the kinetics of flotation in a bulk flotation circuit for galena and sphalerite , Proceedings XlVth Int. Miner. Process. Congress (Toronto), vol. IV, paper 16.
Frew, J.A. (1982) Variation of flotation rate coefficients in zinc cleaning circuits, Int. J. Miner. Process. 9, 173–189.
Phelps Dodge, Ajo mill (1966), personal communication.
Davis, W.J.N. (1964) The development of a mathematical model of the lead flotation circuit at the Zinc Corporation Ltd., Aus. IMM Proceedings 212, 61–89.
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Ek, C. (1992). Flotation Kinetics. In: Mavros, P., Matis, K.A. (eds) Innovations in Flotation Technology. NATO ASI Series, vol 208. Springer, Dordrecht. https://doi.org/10.1007/978-94-011-2658-8_8
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DOI: https://doi.org/10.1007/978-94-011-2658-8_8
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