[1] Jankovic, A., Valery, W. and Davis, E., Cement Grinding Optimisation, Minerals Engineering,
17, p. 1075 (2004).
[2] Farzanegan, A., Laplante, A.R. and Lowther, D.A., A Knowledge-based System for an Off-Line Optimization of Ball Milling Circuits, Proceedings of 29th CMP Conference, Ottawa, 165-185 (1997).
[3] Farzanegan, A., Knowledge-Based Optimization of Mineral Grinding Circuits, Ph.D. Thesis, McGill University, Montreal, Canada (1998).
[4] Irannajad, M., Farzanegan, A. and Razavian, S.M., Spreadsheet-based Simulation of Closed Ball Milling Circuits, Minerals Engineering, 19, 1495 (2006).
[5] Zhang, Y.M., Napier-Munn, T.J. and Kavetsky, A., Application of Comminution and Classification Modelling to Grinding of Cement Clinker, Trans. Inst. Min. Metall., Sect. C, 97, p. 207 (1988).
[6] Benzer, H., Ergün, L., Öner, M. and Lynch, A.J., Simulation of Open Circuit Clinker Grinding. Minerals Engineering, 14 (7), p. 701 (2001a).
[7] Benzer, H., Ergün L., Lynch, A.J., Öner, M., Günlü, A., Çelik, I.B. and Aydoğan, N., Modeling Cement Grinding Circuits, Minerals Enginering, 14 (11), p. 1469 (2001b).
[8] Benzer, H., Modeling and Simulation of a Fully Air Swept Ball Mill in a Raw Material Grinding Circuit, Power Technology, 150, p. 145 (2004).
[9] Yadegar, Sh. and Pishvai, M.R., Mixed Qualitative / Quantitative Dynamic Simulation of Processing Systems, Iranian Journal of Chemistry & Chemical Engineering, 24, p. 53 (2005).
[10] Kolacz, J., Investigating Flow Conditions in Dynamic Air Classification, Minerals Engineering, 15, p. 131 (2002).
[11] Karunakumari, L. et al., Experimental and Numerical Study of a Rotating Wheel Air Classifier, AIChE Journal, 5, p. 776 (2005).
[12] Griffiths W. and Boysan, F., Computational Fluid Dynamics (CFD) and Empirical Modelling of the Performance of a Number of Cyclone Separators, Journal of Aerosol Science, 27, p. 281 (1996).
[13] Wang, Q., Melaaen, M.C. and De Silva, S.R., Investigation and Simulation of a Cross-Flow Air Classifier, Powder Technology, 22, p. 273 (2001).
[14] Bakker, A., Haidari, A.H. and Oshinowo, L.M., Realize Greater Benefits from CFD, AIChE Journal, 47, p. 45 (2001).
[15] Gorji et al., CFD Modeling of Gas - Liquid Hydrodynamics in a Stirred Tank Reactor, Iranian Journal of Chemistry & Chemical Engineering, 42, p. 85 (2007).
[16] Nageswararao, K., Wiseman, D.M. and Napier-Munn, T.J., Two Empirical Hydrocyclone Models Revisited, Minerals Engineering,17, p. 671 (2004).
[17] Napier-Munn, T.J., Morrell, S., Morrison, R.D. and Kojovic, T., “Mineral Comminution Circuits:
Their Operation and Optimization”, JKMRC, The University of Queensland (1999).
[18] Plitt, L.R., The Analysis of Solid-Solid Separations in Classifiers, CIM Bulletin, 64, p. 42 (1971).
[19] Finch, J.A., Modelling a Fish-Hook in Hydrocyclone Selectivity Curves, Powder Technology, 36, p. 128 (1983).
[20] Del Villar, R. and Finch, J.A., Modelling the Cyclone Performance with a Size Dependent Entrainment Factor, Minerals Engineering, 5 (6), p. 661 (1992).
[21] Frachon, M. and Cilliers, J. J., A General Model for Hydrocyclone Partition Curves, Chemical Engineering Journal, 73, p. 53 (1999).
[22] Nageswararao K., A Critical Analysis of the Fish-Hook Effect in Hydrocyclone Classifiers, Chemicals Engineering Journal, 80, p. 251 (2000).
[23] Majumder, A.K., Shah, H., Shukla, P. and Barnwal, J.P., Effect of Operating Variables on Shape
of “Fish-Hook” Curves in Cyclones, Minerals Engineering, 20, p. 204 (2007).
[24] Majumder, A.K., Yerriswamy, P. and Barnwal, J.P., The “Fish-Hook” Phenomenon in Centrifugal Separation of Fine Particles, Minerals Engineering, 16, p. 1005 (2003).
[25] Shah, H., Majumder, A.K., Barnwal, J.P. and Shukla, P., “New Understanding on “Fish-Hook” Effect in Hydrocyclone”, Proceedings of MPT 2007, pp. 425-428 (2007).
[26] Lynch et al., Simulation of Closed Circuit Clinker Grinding, Zement Kalk Gibs (English Translation), 53, p. 560 (2001)
[27] Spring, R., NORBAL 3: Software for Material Balance Reconciliation, Center de Recherché Noranda, Point-Claire, Quebec (1992).