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BENEFICIATION TECHNOLOGY
Название Trends of development and problems related to sensor-based mineral sorting
Автор Kobzev A. S.
Информация об авторе

IEEC (IMC Montan Group) (Russia):

Kobzev A. S., Chief Specialist on Mineral Raw Materials Processing, Ph. D. in Technical Siences

Реферат

The article presents a review of preliminary beneficiation technology of mineral raw materials — sensor-based mineral sorting. Main trends of sensor-based sorting are defined, the equipment operation principle is described. The history of development of sensor-based sorting meth ods is briefly reviewed. Processing tasks are presented, that may be solved by application of preliminary beneficiation technology, based on sensor-based sorting. The results of sensorbased sorting application for solution of various processing tasks are presented. An effect, achieved through introduction of these beneficiation methods in mineral raw materials beneficiation technology, is noted. Main problems of sensor-based sorting development in Russia are defined.

Ключевые слова Preliminary beneficiation, sensor-based sorting methods, sensor-based sorting, large-batch sorting, raw materials grade control
Библиографический список

1. Salter J. D., Wyatt N. P. G Sorting in the minerals industry: past, present and future. Minerals Engineering. 1991. Vol. 4, № 7–11. P. 779–796.
2. Wymen R. A. Selective electronic mineral sorting to 1972. Mines Brauch Monograph № 878, Dept. of Energy, Mines and Resourses. Ottawa, 1972. P. 65.
3. Mokrousov V. A., Lileev V. A. Radiometricheskoye obogashcheniye neradioaktivnykh rud (Radiometric processing of nonradioactive ores). Moscow, Nedra, 1979, 192 p.
4. Demingling the mix: An assessment of commercially available automated sorting technology. Portland: www.4RSustainability.com. April 2010.
5. Seerane K., Rech G. Investigation of sorting technology to remove hard pebbles and recover copper bearing rocks from an autogenous circuit. 6th Southern African Base Metals Conference 2011. The Southern African Institute of Mining and Metallurgy, 2011. P. 123–136.
6. Sanakulov K. S., Rudnev S. V. Gornyy Vestnik Uzbekistana, 2010, No. 1, pp. 3–6.
7. Kopanev A. V., Novikov V. I., Soloviy A. V. Radiometricheskoye oborudovaniye dlya kontrolya tekhnologicheskikh protsessov pererabotki geomaterialov tekhnogennogo uranovogo mestorozhdeniya (Radiometric equipment for control of technological processes of technogenic uranium deposit geomaterials treatment). Geotekhnicheskaya mekhanika. Sbornik trudov (Geotechnical mechanics. Collection of papers). Institute of geotechnical mechanics of the National Academy of Science of Ukraine. Dnepropetrovsk, 2007, Iss. 73, pp. 281–289.
8. Litvinenko V. G., Sukhanov R. A., Tirskiy A. V., Tupikov D. G. Gornyi Zhurnal — Mining Journal, 2008, No. 8, pp. 54–58.
9. Bamber A. S. Integrated mining, preconcentration and waste disposal systems for the increased sustainability of hard rock metal mining: Thesis for the degree of Doctor of Philosophy. University of British Columbia. Vancouver, April 2008.
10. Fitzpatrick R. The Development of a Methodology for Automated Sorting In the Minerals Industry: PhD Thesis in Earth Resources. The University of Exeter. Exeter, Sept. 2008.
11. Udoudo О. В. Modeling the efficiency of an automated sensorbased sorter: Thesis for the degree of Doctor of Philosophy. The University of Exeter. Exeter, Sept. 2010.

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