Hydrogen as an indicator of geodynamic processes in coal-bearing strata
Abstract
Formulation of the problem. The problem of developing and implementing exploration technology that will ensure the protection of mine workings and prevent catastrophes in the development of coal deposits is especially relevant now, when the issue of environmental protection and safety at coal mines is very acute.
Analysis of recent research and publications. The idea of degassing of the Earth as a global process of its self-organization was developed by V.I. Vernadsky in a number of works published in 1911, 1912, 1924. This concept has had and continues to have a powerful growing influence on modern Earth sciences. The idea of the key role of hydrogen in degassing of the Earth is developed in the works of V.M. Larin, F.A. Letnykov, А.А. Marakushev, V.V. Khmelyovska, A.V. Shcherbakov, N.D. Kozlova, Yu.A. Kolyasnikov, V.M. Shestopalov, V.I. Starostenko, A.N. Ponomarenko.
The purpose of the article is: analysis of the current state of coal mining in Ukraine and in the world as a whole; substantiation of the possibility of using the technology of safe search for hydrogen in minefield development zones.
Presentation of the main research material. The new development of safe exploration technology for coal deposits, proposed by the authors, will allow to track in advance, to identify places of possible manifestations of gas-dynamic phenomena and to make operational decisions to eliminate them. The technology is based on the use of exploratory gas-geochemical methods for mapping the places of gas-hydrogen accumulations and together with a set of geological and geophysical methods allows to allocate areas of possible emergency processes in the development zones of mine fields. On a large massif of field work of areal and profile surveys, the feasibility of using search technology has been proven to justify the use of advance degassing wells to prevent uncontrolled explosive processes and technical disasters. The proposed technology has been tested at numerous mining sites in the process of exploration and environmental research in areas of operating and developed mine fields.
Conclusions. For the first time in the world practice, new approaches were proposed and substantiated to change the safety paradigm of coal mining, which will prevent the manifestations of unpredictable GDP and the associated material and human losses.
Analysis of the results of a complex of fundamental and applied research at coal mining facilities allows, according to the proposed technology, to identify and map the studied areas of abnormal hydrogen concentrations, their characteristics and use it as reliable markers for operational decisions for safe mining by laying advance degassing wells, which will ultimately make emergency GDP impossible.
The expediency of application of the proposed technology for substantiation and allocation of geodynamic active and stable zones and blocks promising for industrial exploration of hydrocarbons, determining the locations of possible manifestations of GDP and complex making operative decisions for safety of mining works is proved. And, unfortunately, the research carried out by scientists and the results obtained have not yet found worthy support from the President of Ukraine, state line ministries, commercial structures and the Academy of Sciences.
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References
Vernadsky V.I. (1960). Selected Works. Moscow: publishing house of the USSR Academy of Sciences, 422.
Semenenko N.P. (1990). Oxygen-hydrogen model of the earth. Kiev: Naukova Dumka, 246.
Voitov G.I., Osika D.G. (1982). Hydrogen respiration of the earth as a reflection of the features of the geological structure and tectonic development of its megastructures. Proceedings of the Geological Institute. Makhachkala, 26, 7-29.
Marakushev A.A., Marakushev S.A. (2008). Hydrogen respiration of the earth – its origin, geological and biological consequences. Alternative energy and ecology, 57, 152-170.
Bagriy I.D., Kuzmenko S.O., Naumenko U.Z., Zubal S.D. (2019). New technology for exploration of hydrogen accu-mulations and forecast of geodynamic phenomena. 13th International Conference on Monitoring of Geological Processes and Ecological Condition of the Environment Kyiv, Ukraine, 1-4.
Bagriy I.D., P.F. Gozhik, A.A. Repkin, S.A. Kuzmenko, A.A. Loktiev, V.G. Semenuk. (2019). Rationale of search tech-nology on hydrogen and geodynamic phenomena (oil and gas regions, minefields). Geol. zhurn., 2 (367), 18-28. DOI: https://doi.org/10.30836/igs.1025-6814.2019.2.169931
Bagriy I.D., Kuzmenko S.A. (2019). Scientific substantiation of the spatial distribution and mapping of anomalous manifestations of hydrogen – the energy raw material of the XXI century – in the oil and gas structures of Ukraine and the prevention of geodynamic phenomena. Geol. zhurn., 1 (366), 59-77. DOI: https://doi.org/10.30836/igs.1025-6814.2019.1.159241
Bagriy I.D., Naumenko U.Z., Maslun N.V., Dubosarsky V.R., Zhalovsky V.M., Maryukhno V.M. (2017). Modern scien-tific approaches to the development of ecologically oriented technologies for exploration of hydrocarbon and groundwater deposits. Fourth International Scientific and Practical Conference "Subsoil Use in Ukraine. Invest-ment Prospects". Ukraine, Truskavets, 62-64.
Gladun V.V., Dovzhok T.Ye., Yevdoschuk M.I. (2000). Independent object of hydrocarbon exploration in the Dnieper-Donetsk gas and oil region. Oil and gas industry, 5, 6-9.
GOST 23781-87. Combustible natural gases. Chromatographic method for determining the component composi-tion, 11.
Demyanenko I.I. (2004). Problems and optimization of oil and gas prospecting and exploration works at the ob-jects of the Dnieper-Donetsk basin. Chernihiv: State Center for Science, Innovation and Informatization, 220.
Porotov G.S. (2006). Mathematical modeling methods: Textbook. St. Petersburg State Mining University (Tech-nical University), 223.
Porfiryev V.B., Krayushkin V.A., Klochko V.P., Ponomarenko M.I., Palamar V.P., Lushpey M.M. (1982). A new direc-tion of geological exploration in the Akhtyrka oil and gas production area of the Dnieper-Donetsk depression. Geol. Journ., 4, 4, 1-11.
Ryaboshtan Yu.S. (1980). On the content and tasks of structural-geodynamic mapping during prospecting and ex-ploration works at hydrothermal-type deposits. Sedimentary rocks and ores. Kiev, Nauk. Dumka, 126-135.
Sokolov V.A. (1971). Geochemistry of natural gases. M., Nedra, 336.
Sollogub V.B. (1986). Lithosphere of Ukraine. Kiev, Nauk. Dumka, 184.
Soyak L. (2003). Separation and identification of isomeric hydrocarbons by capillary gas chromatography and its combinations with mass spectrometry and FTIR spectroscopy. Rus. chem. Journ. (J. of the Russian Chemical Socie-ty named after D.I.Mendeleev), XLVII, 2, 51–69.
Pearson E.S., Hartley H.O. (1972). Biometrica tables for Statistics. Cambridge, University Press, 634.
Geological Journal. Institute of Geological Sciences. Available at: http://geojournal.igs-nas.org.ua/article/view/9967. DOI: https://doi.org/10.30836/igs.1025-6814.2018.2.133461
Mineral resources of Ukraine. Ukrainian state geological research institute: https://mru-journal.com.ua/index.php/mru/article/view/296. DOI: https://doi.org/10.31996/mru.2020.4.28-38