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Tytuł artykułu

Methods of enlarging material to the concentration table

Treść / Zawartość
Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
Concentration tables are one of the oldest oscillatory enrichments with over 100 years of tradition. On this type of distribution tables are made according to material mass in many recurring cycles induced by appropriate drives. So-called wet tables are the devices most often used for coal enrichment in Polish mines because this process generates very high costs, high water consumption and pollution of the environment, as well as the need for, among others, water and mud management is increasingly being replaced mainly in areas poor in water by the modern model of the air concentration table - FGX produced in China. The process of enrichment on this type of table itself runs in a manner comparable to the method of wet enrichment with the difference that the FGX is distributed on a perforated plate, in this case we deal with air pollution. Department of Machinery Engineering and Transport's attempts to use the differences in coefficients of friction in over-resonance screens have shown that it is possible effective separation of grains with different coefficients of friction. The article presents a theoretical analysis and presents the results of performed dry enrichment trials using different coefficients of friction. The summary presents the advantages of using the enrichment method using the differences in friction coefficients and test results.
Rocznik
Strony
59--68
Opis fizyczny
Bibliogr. 25 poz., rys., tab.
Twórcy
autor
  • AGH University of Science and Technology, Poland
  • AGH University of Science and Technology, Poland
Bibliografia
  • 1. Baic, I., Blaschke, W., Góralczyk, S., Szafarczyk, J., Buchalik, G. (2013). An ecological method of removing impurities from waste rock from hard coal mining. A quarterly of the Krakow Technical Society No. 166, Kraków.
  • 2. Banaszewski, T. (1997). Maximum asymmetry of accelerations with a double-mass dual-torque vibrator. Kwartalnik AGH, Mechanika z. 4, vol. 16.
  • 3. Banaszewski, T., Blaschke, J. (1969). Wilfey propulsion kinematics. Zeszyty Naukowe AGH, No. 224, Electrification and Mechanization of Mining and Metallurgy, No. 33.
  • 4. Baran, J. (1998). The use of wheeled vibration decks for recovering copper from shredded power cables. Zeszyty Naukowe Politechniki Śląskiej, z. 238, Gliwice.
  • 5. Baran, J. (2000). Attempts to split copper and isolation from fragmented power cables on a straight line oscillation. Zeszyty Naukowe Politechniki Śląskiej, z. 245, Gliwice.
  • 6. Battaglia, A. (1968). Machines for mechanical processing of minerals. Part 2, hydromechanical equipment. PWN, Cracow.
  • 7. Blaschke, W. Mokrzycki, E. Shan, Z. (1994). Economics of hard coal processing. In International coal-processing congress. T. 5, Krakow.
  • 8. Bołoz Ł., Midor K. (2018). Process innovations in mining industry and effects of their implementation presented on example of longwall milling heads, Acta Montanistica Slovaca, 23(3), pp. 282-292.
  • 9. Donczenko, A. S. Donczenko, W. A. (1975). Mechanical expedition mechanic pudoobogatitielnoj fabrika. Niedra, Moscow.
  • 10. Feliks J. (1999). The asymmetry of accelerations of the triply two-mass inertial table vibrator, Kwartalnik AGH, Mechanika Vol. 18 z. 4 pp. 475-482.
  • 11. Feliks, J. (2015). Granulation of dolomite and limestone in the vibratory granulator. Przemysl Chemiczny; Vol. 94 nr 5, pp. 771-773.
  • 12. Feliks, J. (2017a). Pelleting of fine-grained wastes from rock aggregate mines for the needs of remineralisation of soil. Przemysl Chemiczny. Vol. 96, nr. 9 pp. 1860-1863.
  • 13. Feliks, J., Mazur M. (2017b). Safety systems against metallic contaminations in feed material, SGEM2017: 17\textsuperscript{th} international multidisciplinary scientific geoconference: science and technologies in geology, exploration and mining: conference proceedings. Vol. 17 iss. 11, Geology mineral processing. STEF92 Technology Ltd., pp. 1043-1050.
  • 14. Feliks J., Klojzy-Karczmarczyk B., Wiencek M. (2018). Granulating coal sludge and their mixtures to improve transport properties. Zeszyty Naukowe Instytutu Gospodarki Surowcami Mineralnymi i Energią PAN; Vol. 104, pp. 173-188.
  • 15. Filipowicz, A. (1996). The driving mechanism of Deister type concentration tables. Kwartalnik AGH, Mechanika, vol. 15, item 3.
  • 16. Filipowicz, A. (1992). Kinematics of the concentration table with Wilfley's drive. Kwartalnik AGH, Mechanika, Volume 15, issue 3.
  • 17. Filipowicz, A., Feliks, J., Krawczyk, M. (2005). Operation of double single-mass drives for concentrating tables. Conference materials, 4th International Technique of Building Technique, Krynica.
  • 18. Góralczyk, S. Blaschke W. Kozioł, W. Sobko, W. (2016). The use of FGX air concentration tables for cleaning broken natural aggregates. Mining Science-Mineral Aggregates, vol. 23 (1), 37-46.
  • 19. Łuszczkiewicz, A. and Kaczmarek B. (1992). Phisicochemical Problems of Mineral Processing. 25, 123-132.
  • 20. Pilch, W., Stachrsk, J., Sztaba, K. (1990). Investigations and utilization of heavy minerals from Baltic beach sands. Phisicochemical Problems of Mineral Processing. AGH vol. 23 (1), 71-79.
  • 21. Schubert, H. (1986). Preparation of solid mineral raw materials. Volume II Deustcher publishing house for basic industry, Leipzig.
  • 22. Sidor, J., Feliks, J. (2015). Granulatory wibracyjne. Przemysł Chemiczny, Vol. 94, no. 5, pp. 767-770.
  • 23. Taggart, A.F. (1960). Handbook of mineral dressing oras and industrial minerals, J. Wilfley & sons. New York, London.
  • 24. Tomach P. (2017a) Study of intensification of the milling process in the vibratory mill, Przemysł Chemiczny; Vol. 96 nr 9, pp. 1893-1897.
  • 25. Tomach P. (2017b) The process model of the vibratory mill including the impact of the milling process-intensifying element. Przemysł Chemiczny; Vol. 96 nr 12, pp. 2467-2470.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-5d8441f7-752b-48aa-8a3f-5d12e4df2311
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