[1] Remes, A., Aaltonen, J., and Koivo, H., “Grinding circuit modelling and simulation of particle size control”, Int.J. of miner. Process., Vol.96 (2010), pp.70-78.
[2] Rodriguez, B.A., Menendez-Aguado, J.M., Coello Velazquez, A., and Dzioba, B.R., “Transient state analysis by simulation in a closed grinding circuit-Technical note”, Minerals Engineering, Vol.24 (2011), pp.473-475.
[3] Khumalo, N., Glasser, D., Hildebrandt, D., and Hausberger, B., “Improving comminution efficiency using classification: An attainable region approach”, Powder Techn., Vol.187 (2008), pp.252-259.
[4] Brown, R.L., Chem, M.I., “Calculation of closed-circuit grinding”, British Chemical Engineering, August / September, (1959), pp.463-466.
[5] Stewart, P.S.P., and Restarick, C.J., “Dynamic flow characteristics of a small spiral classifier”, Trans.of IMM. Sec. C., Vol.76, (1967), pp.C225-C230.
[6] Kapur, P.C., and Rahman, M., “Simulation of fixed time locked-cycle grinding tests”, Trans. Of IMM, Sec.C., Vol.80, (1971), pp. C74-C78.
[7] Karra, v.k., “Calculating the circulating load in crushing circuits”, Eng. And Mining Journal, Feb. (1979), pp.66-68.
[8] Cemil Acar and Hosten Certin, “Grinding Kinetics of steady state feeds in locked-cycle dry ball milling”, Powder Techn., Vol. 240, (2013), pp. 274-281.
[9] Shengo, L.M., Gydardzhiev, S., and Kalenga, N.M., “Malachite and heterogenite behavior during the locked-cycle recycling of process water in flotation of copper-cobalt oxide ores”. Int.J. of Miner. Process., Vol.157, (2016), pp. 152-162.
[10] Hartlieb, p., Toifl, M., Kuchar, F., Meisels, R., and Antretter, T., “Thermo-physical properties of selected hard rocks and their relation to microwave-assisted comminution”, Minerals Engineering, Vol.91 (2016), pp.34-41.
[11] Altun, A., Benzer, H., Dundar, H., and Aydogan, N.A., “Comparison of open and closed circuit HPGR application on dry grinding circuit performance”, Mineral Engineering, Vol.24 (2011), pp.267-275.
[12] Fuerstenau, D.W., and Venkataraman, K.S., “The comminution of multi component feeds under batch and Locked-cycle conditions: Kinetics, simulation and energy distribution”, Int.J. of Miner. Process., Vol.22 (1988), pp.105-118.
[13] Kapur.P.C., Verma, R., Velamakanni, B.V., and Fuerstenau, D.W., “Simulation of locked-cycle grinding of multi component feeds and its implications for stability and control of industrial comminution circuits”, Powder Techn, Vol.69, (1992), pp.77-84.
[14] Kapur.P.C., and Fuerstenau, D.W., “Simulation of locked-cycle grinding tests using multi component feeds”, Powder Techn., Vol.58 (1989), pp.39-48.
[15] Powell, M.S., and Morrison, R.D., “The future of commnution modelling”, Int.J. Min. Process, Vol. 84 (2007), pp. 228-239.
[16] Jankovic, A., and Valery, W., “Closed circuit ball mill –revisited”, Minerals Engineering, Vol.43-44 (2013), pp. 148-453.
[17] Olivera, A., and Tawares, L.M., “Modelling and simulation of continuous open circuit dry grinding in a pilot-scale ball mill using Austin and Nomura's models”, Powder Techn., Vol.340 (2018), pp.77-87.
[18] Weining, X., yaqun, H., Zhenzhou, G., Fengnian, S., yong, y., Hong, L., Shuai, W., and ki, L, “An analysis of the energy split for grinding coal / calcite mixture”, Minerals Engineering, Vol.93 (2016), pp. 1-9.
[19] Dundar, H., and Benzer, H., “Investigation multicomponent breakage in cement grinding”, Minerals Engineering, Vol.77 (2015), pp.131-136.
[20] Genc, O., “Optimization an industrial scale open circuit three-compartment cement grinding ball mill with the aid of simulation”, Int.J. of Miner. Process., Vol.154 (2016), pp.1-9.