Viktor Lishchuk 1  ,  
Cecilia Lund 1,  
Luleå University of Technology
Mining Science 2015;22(Special Issue 2):57–66
Geometallurgy is a growing area within a mineral processing industry. It brings together tasks of geologists and mineral processing engineers to do short and medium term production planning. However, it is also striving to deal with long term tasks such as changes in either production flow sheet or considering different scenarios. This paper demonstrates capabilities of geometallurgy through two case studies from perspective of Minerals and Metallurgical Engineering division Lulea University of Technology. A classification system of geometallurgical usages and approaches was developed in order to describe a working framework. A practical meaning of classification system was proved in two case studies: Mikheevskoye (Russia) and Malmberget (Sweden) projects. These case studies, where geometallurgy was applied in a rather systematic way, have shown the amount of work required for moving the project within the geometallurgical framework, which corresponds to shift of the projects location within the geometallurgical classification system.
Viktor Lishchuk   
Luleå University of Technology, SE-971 87 Luleå, Sweden
1. BELOSHAPKOV A. V., POPOV P. M., BOURTSEV S. A., 2012. Environmental and social impact assessment for construction of Mikheevsky mining and ore processing complex, ERM Eurasia Ltd.
2. GEIJER P. 1930. Geology of the Gällivare Iron Ore Field, Kungliga Boktryckeriet PA Nordstedt and Söner, Geological Survey of Sweden Ca 22: 115.
3. HENLEY S. 2004. Russian resource and reserve categories, The Russian reserves and resources reporting system. International Mining Company Invest Inc. [Online], access date 08.21.2004, http://www.imcinvest.com/.
4. KOCH P.H. 2013. Textural Variants of Iron Ore from Malmberget Textural Variants of Iron Ore from Malmberget, Master Thesis, http://pure.ltu.se/portal/file....
5. KOSICK G., BENNETT C., DOBBY G., 2002. Managing Company Risk by Incorporating the Mine Resource Model into Design and Optimization of Mineral Processing Plants, SGS mineral services, technical paper 2002-21.
6. LAMBERG P. AND LUND C., 2012. Taking Liberation Information into a Geometallurgical ModelCase Study Malmberget, Northern Sweden, Process Mineralogy’12.
7. LAMBERG P. AND VIANNA S., 2007. A Technique for Tracking Multiphase Mineral Particles in Flotation Circuits, Lima, RMF, Ladeira, ACQ, Da Silva, CA Et.
8. LAMBERG P., 2011. Particles - the Bridge between Geology and Metallurgy, In Conference in Minerals Engineering. Luleå.
9. LISHCHUK V., 2014. Porphyry ore body zonality for the mine planning in context of processing performance, Master Thesis, Aalto University, Finland. LKAB, 2013. LKAB Annual and Sustainability Report.
10. LUND C., 2013. Mineralogical, chemical and textural characterisation of the Malmberget iron ore deposit for a geometallurgical model, (electronic source), PhD Thesis, Luleå: Luleå University o Technology.
11. MARTINSSON O. 2004. Geology and Metallogeny of the Northern Norrbotten Fe-Cu-Au Province, Society of Economic Geologists.
12. MCQUISTON F. W. AND BECHAUD L. J., 1968. Metallurgical Sampling and Testing, (In:) Pfleider, E.P., ed., Surface mining. New York: The American Institute of Mining, Metallurgical and Petroleum Engineers, pp. 103-121.
13. MWANGA A., 2014. Test Methods for Characterising Ore Comminution Behavior in Geometallurgy, pp. 112.
14. NIIRANEN K. AND BÖHM A., 2012. A Systematic Characterization of the Orebody for Mineral Processing at Kirunavaara Iron Ore Mine Operated by LKAB in Kiruna, Northern Sweden, IMPC 2012, No. 1039: pp. 3855–3864.
15. ROMER R. L., MARTINSSON O., PERDAHL J.A., 1994. Geochronology of the Kiruna Iron Ores and Hydrothermal Alterations, Economic Geology.
16. SCHOUWSTRA R., DE VAUX D, MUZONDO T., PRINS C., 2013. A Geometallurgical Approach at Anglo American Platinum’s Mogalakwena Operation, The Australasian Institute of Mining and Metallurgy (AusIMM), pp. 85–92.
17. SILLITOE R. H., 1973. The Tops and Bottoms of Porphyry Copper Deposits, Economic Geology 68: pp. 799–815.
18. SILLITOE R. H., 2010. Porphyry Copper Systems, Economic Geology 105: pp. 3–41.
19. VANN J., JACKSON J., COWARD S., DUNHAM S., 2011. The Geomet Curve–A Model for Implementation of Geometallurgy, First AusIMM International Geometallurgy.
20. WILLIAMS S. R. AND RICHARDSON J. M., 2004. Geometallurgical Mapping: A New Approach That Reduces Technical Risk Geometallurgical mapping, In SGS minerals services, pp. 1–13.