
THERMOPHYSICS OF MINING
Original Paper
UDC 551.1/.4 (571 + 574) © N.I. Akulov, S.A. Prokopiev, E.S. Prokopiev, O.L. Alekseeva, 2022
ISSN 0041-5790 (Print) • ISSN 2412-8333 (Online) • Ugol’ – Russian Coal Journal, 2022, № S12, pp. 53-59
DOI: http://dx.doi.org/10.18796/0041-5790-2022-S12-53-59
Title
SPONTANEOUS COMBUSTION TECHNOGENIC REDEPOSITED OAL-BEARING DEPOSITS OF KUZBASS
Authors
Akulov N.I.1, Prokopiev S.A.1, 2, Prokopiev E.S.1, Alekseeva O.L.1
1 FGBUN "Institute of the Earth's Crust SB RAS", Irkutsk, 664033, Russian Federation
2CEO LLC NPK "Spirit", Shelekhov, 666037, Russian Federation
Authors Information
Akulov N.I., Doctor of Geol.-min. sciences, Leading Researcher, e-mail: akulov@crust.irk.ru
Prokopiev S.A., PhD (Engineering), Head complex use department mineral raw materials, General Direktor, e-mail: psa@spirit-irk.ru
Prokopiev E.S., Lead Engineer of Department integrated use mineral raw materials, e-mail: prokopyeves@mail.ru
Alekseeva O.L., Lead Engineer of Department integrated use mineral raw materials, e-mail: RSSm38@yandex.ru
Abstract
The article considers one of the most interesting natural processes - spontaneous combustion of technogenically redeposited coal-bearing deposits at the Osinnikovskoye coal deposit. Based on the study of lithological and geochemical features of pyrolyzed coal-bearing deposits of heaps, the authors made the following conclusions: the dynamics of epigenesis of coal-bearing rocks is accompanied by an exothermic process, which results in low-temperature pyrolysis; pyrolysis promotes metasomatic transformations of rocks, consisting in the active removal of such components as S–C–N, etc. from the coal-bearing mass; in the process of jet gas mass transfer through fumarole channels, condensation of gaseous pyrolysis products occurs; a large accumulation on the surface of waste heaps of high-molecular hydrocarbon compounds in the form of asphaltenes, resins and sulfur contributes to spontaneous combustion and pyrogenesis (burning) of rocks.
Keywords
Spontaneous combustion, Coal-bearing strata, Waste heap, Biochemical focus, Sulfur, Pyrolysis asphaltenes.
References
1. Obruchev V.A. Through the mountains and deserts of Central Asia. Moscow, Publ. House of the Academy of Sciences of the USSR, 1948, 243 p. (In Russ.).
2. Bentor Y.K., Kastner M. Combustion metamorphism in Southern California. Science, 1976, (193), pp. 486-488.
3. Lindqvist J., Hatherton T. & Mumme T. Magnetic anomalies resulting from baked sediments over burnt coal seams in southern New Zealand. N.Z. J. Geology and geophysics, 1985, (28), pp. 405-412.
4. Akulov N.I. Concretions in coal-bearing deposits of the southern part of the Tunguska basin. Litologiya i poleznye iskopaemye, 2006, (1), pp. 83-95. (In Russ.).
5. Nigmatulina V.A.& Nigmatulina E.N. Pyrogenic iron ores ancient coal fires of Kuzbass. Zapiski RMO, 2009, (1), pp. 52-68. (In Russ.).
6. Li F., Qian A., Sun G. & Wang Q. Estimation of Annual CO2 Emission from Coal Fires in Majiliang Mine, Datong, Northen China Using UAVs Thermal Infrared Remote Sensing Technology. IEEE, 2018, (18), pp. 1-4.
7. He X., Yang X., Luo Z. & Guan T. Application of unmanned aerial vehicle (UAV) thermal infrared remote sensing to identify coal fires in the Huojitu coal mine in Shenmu city, China. Sci. Rep., 2020, (10), pp. 13895.
8. Liu J.L., Wang Y.J., Yan S.Y., Zhao F., Li Y., Dang L.B., Liu X.X., Shao Y.Q. & Peng B. Underground Coal Fire Detection and Monitoring Based on Landsat-8 and Sentinel-1 Data Sets in Miquan Fire Area, Xin Jiang. Remote Sens, 2021, (13), p. 1141.
9. Shao Z., Jia X., Zhong X., Wang D., Wei J., Wang Y. & Chen L. Detection, extinguishing, and monitoring of a coal fire in Xinjiang, China. Environ. Sci. Pollut. Res, 2018, (25), pp. 26603–26616.
10. Szurgacz D., Tutak M., Brodny J., Sobik L. & Zhironkina O. The Method of Combating Coal Spontaneous Combustion Hazard in Goafs – A Case Study. Energies, 2020, (13), p. 4538.
11. Shao Z., Li Y., Deng R., Wang D. & Zhong X. Three-dimensional-imaging thermal surfaces of coal fires based on UAV thermal infrared data. IJRS, 2021, (42), pp. 672-692.
12. Biswal S.S., Raval S. & Gorai A.K. Delineation and mapping of coal mine fire using remote sensing data – A review. IJRS, 2019, (40), pp. 6499-6529.
13. Biswal S.S. & Gorai A.K. Change detection analysis in coverage area of coal fire from 2009 to 2019 in Jharia Coalfield using remote sensing data. IJRS, 2020, (41), pp. 9545-9564.
14. Akulov N.I., Akulova V.V. & Khudonogova E.V. Pyrogenic metamorphism of the carbonaceous rocks in the south of the Siberian platform / Coal Combustion Re-search, Editors: Christopher T. Grace. New York, Nova Science Publ. Inc., 2010, pp. 219-234.
15. Revenko A.G. & Khudonogova E.V. X-ray fluorescence determination of mi-nor and tracer element contents in various types of rocks, soils, and sediments using the S4 PIONEER spectrometer. Ukr. Him. ZHurn., 2008, 71 (9-10), pp. 39-45.
16. Kalabin G.A., Kanitskaya L.V.& Kushnarev D.F. Quantitative NMR spectroscopy of natural organic raw materials and products of their processing. Moscow, Himiya, 2000, 408 p. (In Russ.).
17. Kuznetsov B.N. Catalysis of chemical transformations of coal and biomass. Novosibirsk, Nauka Publ., 1990, 301 p. (In Russ.).
18. Yurovsky A.Z. Sulfur of coals. Moscow, Izd-vo AN SSSR, 1960, 295 p. (In Russ.).
19. Kizilstein L.Ya. Genesis of sulfur in coals. Rostov-on-Don, Izd-vo Rost. un-ta, 1975, 198 p. (In Russ.).
20. Zborshchik M.P.& Osokin V.V. Prevention of spontaneous combustion of rocks. Kyiv, Izd-vo Tekhnika, 1990, 176 p. (In Russ.).
21. Lazarenko E.K., Orlov O.M. & Panov B.S. Modern mineral formation in the Donetsk basin. Mineralogicheskij sbornik. 1973, 3 (27), pp. 254-262. (In Russ.).
22. Chesnokov B.V & Shcherbakova E.P. Mineralogy of burnt dumps of the Chelyabinsk coal basin (experiment in the mineralogy of technogenesis). Moscow, Nauka Publ., 1991, 152 p. (In Russ.).
Acknowledgements
The research was carried out with financial support of the ‘Development and implementation of complex technologies in the areas of exploration and extraction of minerals, industrial safety, bioremediation, creation of new deep conversion products from coal raw materials while consistently reducing the environmental impact and risks to human life’ Integrated Scientific and Technical Programme of the Full Innovation Cycle, approved by Order No. 1144-р of the Government of the Russian Federation as of May 11, 2022.
For citation
Akulov N.I., Prokopiev S.A. Prokopiev E.S. & Alekseeva O.L. Spontaneous combustion of technogenic redeposited coal-bearing deposits of Kuzbass. Ugol’, 2022, (S12), pp. 53-59. (In Russ.). DOI: 10.18796/0041-5790-2022-S12-53-59.
Paper info
Received November 1, 2022
Reviewed November 15, 2022
Accepted November 30, 2022