Coe, H.S., & Clevenger, G.H., (1916). Methods for determining the capacities of slime settling tanks. Trans, AIME 55, P.P.
 Silverblatt, C. E., and Easton, J. H., 2002, Characterisation of process objectives and general approach to equipment selection, In Mineral processing plant design practice and control, (A. L. Mular, D. N. Haibe, and D. J. Barrett, Ed.), Englewood, CO: SME, pp. 1255–1261.
 Hogg, R., 2005, Flocculation and dewatering of fine-particle suspensions, In Coagulation and flocculation, (H. Stechemesser and B. Dobiás, Eds.), Boca Raton, FL: Taylor and Francis, pp. 805–850.
 McCaslin, M. L., Mounteer, K. J., and Phillips, M., 2014, Innovations in liquid/solid separation for metallurgical processing, In Mineral processing and extractive metallurgy 100 years of innovation, (C. G. Anderson, R. C. Dunne, and J. L. Uhrie, Eds.), Englewood, CO: SME, pp. 333–344.
 Nguyen, T. V., Farrow, J. B., Smith, J., and Fawell, P. D., 2012, “Design and development of a novel thickener feedwell using computational fluid dynamics.” Journal of the Southern African Institute of Mining and Metallurgy, 112. pp. 939–948.
 Green, M. D., and Boger, D. V., 1997, “Yielding of suspension in compression.” Industrial & Engineering Chemistry Research, 36. pp. 4984–4992.
 Mohammad Reza Garmsiri & Ataollah Nosrati, 2018 “Dewatering of Copper Flotation Tailings: Effect of Feed Dilution on the Thickener Performance.” Mineral Processing and Extractive Metallurgy Review, 0882-7508 (Print) 1547-7401
 Gorain, B. K., 2016, Physical processing: innovations in mineral processing, In Innovative process development in metallurgical industry, (V. I. Lakshmanan and V. Ramachandran, Eds.), Switzerland: Springer, pp. 9–65.
 Schoenbrunn, F., and Laros, L., 2002, Design features and types of sedimentation equipment, In Mineral processing plant design practice and control, (A. L. Mular, D. L. Halbe, and D. J. Barratt, Eds.), Englewood, CO: SME, pp. 1331–1341.
 Wood, L. J. A., Turner, S. D., Laros, T. J., and Emmett, R. C., 1997, Self-diluting feedwell for thickener dilution, Google Patents.https://patentimages.storage.googleapis.com/da/93/b5/085480ea23fdd5/ US5389250.pdf
 Banisi, S., and Yahyaei, M., 2008, “Feed Dilution-Based Design of a Thickener for Refuse Slurry of a Coal Preparation Plant.” International Journal of Coal Preparation and Utilization, 28. pp. 201–223.
 A.T. Owen, T.V. Nguyen, P.D. Fawell., 2009, “The effect of Flocculent solution transport and addition conditions on feedwell performance in gravity thickeners.” Int. J. Miner. Process. 93 (2009) 115–127
 White, R.B., SSutalo, I.D., & Nguyen, T., (2003). “Fluid flow in thickener feedwell models.” Minerals Engineering, Vol. 16, pp.145–150. doi:10.1016/S0892-6875(02)00252-2
 Gh. Parsapour, F. Molhem, H. Montazari, E. Arghavani, Gh. Biniaz, S. Banisi.,2018 “Performance improvement of the Sarcheshmeh Copper Complex Cu-Mo thickener using a vane type feedwell.” IJMGE 53-1 (2019) 79-82
 R. Burgos and F. Concha, Further Development of Software for the Design and Simulation of Industrial Thickeners, Chemical Engineering Journal, Vol. 111, pp. 135–144 (2005).
 Gol-E-Gohar Iron ore beneficiation plant (lines 5, 6, and 7). Operating Manual. 2015