SOCAR Proceedings

SOCAR Proceedings

Published by "OilGasScientificResearchProject" Institute of State Oil Company of Azerbaijan Republic (SOCAR).

SOCAR Proceedings is published from 1930 and is intended for oil and gas industry specialists, post-graduate (students) and scientific workers.

Journal is indexed in Web of Science (Emerging Sources Citation Index), SCOPUS and Russian Scientific Citation Index, and abstracted in EI’s Compendex, Petroleum Abstracts (Tulsa), Inspec, Chemical Abstracts database.

V. Yu. Kerimov1,2, R. N. Mustaev1, E. A. Lavrenova1, P. A. Romanov1

1S. Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia; 2Institute of Oil and Gas, ANAS, Baku, Azerbaijan

Regularities of hydrocarbons accumulations in the Meso-Cenozoic complex of the Black Sea-Caspian region


The article considers the regularities in the distribution of hydrocarbon accumulations in the Meso-Cenozoic complex of the Black Sea-Caspian region associated with the evolution of generation-accumulation systems developed in the plate cover of the region. The plate cover, as well as elements of the Mesozoic generationaccumulation systems, began to form in the structure of the Alpine structural-geodynamic systems. An analysis of the areal distribution of structural-geodynamic systems shows that the maximum development of sedimentary basins correlates with the transgressive Cretaceous period, which is characterized by the expansion of the areas of pre-existing basins and the emergence of new depocenters. In this case, two groups of basins are distinguished. The first includes the Karkinitsky, Bolshekavkazsky, West Kuban, Central and Tersko-Caspian basins. The second group includes depocenters Indolsky, East Kuban, Berdyansk, North Azov, West Stavropol, Gudilovsky, Ustyurtsky. The most significant events that determined the features of the evolution of generation-accumulation systems correlate with the latest time.

Keywords: Black Sea - Caspian region; development of sedimentary basins; structural and geodynamic system; tectonic conditions; signs of oil and gas content.

The article considers the regularities in the distribution of hydrocarbon accumulations in the Meso-Cenozoic complex of the Black Sea-Caspian region associated with the evolution of generation-accumulation systems developed in the plate cover of the region. The plate cover, as well as elements of the Mesozoic generationaccumulation systems, began to form in the structure of the Alpine structural-geodynamic systems. An analysis of the areal distribution of structural-geodynamic systems shows that the maximum development of sedimentary basins correlates with the transgressive Cretaceous period, which is characterized by the expansion of the areas of pre-existing basins and the emergence of new depocenters. In this case, two groups of basins are distinguished. The first includes the Karkinitsky, Bolshekavkazsky, West Kuban, Central and Tersko-Caspian basins. The second group includes depocenters Indolsky, East Kuban, Berdyansk, North Azov, West Stavropol, Gudilovsky, Ustyurtsky. The most significant events that determined the features of the evolution of generation-accumulation systems correlate with the latest time.

Keywords: Black Sea - Caspian region; development of sedimentary basins; structural and geodynamic system; tectonic conditions; signs of oil and gas content.

References

  1. Senin, B. V., Kerimov, V. Yu., Bogoyavlensky, V. I., et al. (2020). Oil and gas provinces of the Russian seas and adjacent water areas. Moscow: Nedra.
  2. Khain, V. E., Bogdanov, N. A. (2003). International tectonic map of the Caspian Sea and its surroundings. Scale 1:2500000. Moscow: PKO Kartografia.
  3. Leonov, Yu. G., Volozh, Yu. A., Antipov, M. P., et al. (2010). Consolidated crust of the Caspian Region: zoning experience. Moscow: GEOS.
  4. Afanasenkov, A. P., Nikishin, A. M., Obukhov, A. N. (2007). Eastern Black sea basin: geological structure and hydrocarbon potential. Moscow: Scientific World.
  5. Senin, B. V., Khain, V. E., Popkov, V. I. (2009). Black Sea / in the book. «Tectonics of the southern framing of the East European Platform (explanatory note to the tectonic map of the Black Sea-Caspian region. Scale 1:2 500 000)». Krasnodar: KUBGU.
  6. Klavdiyeva, N. V. (2007). Tektonicheskoye pogruzheniye Predkavkazskikh krayevykh progibov v kaynozoye. Dissertatsiya na soiskaniye uchenoy stepeni kandidata geologo-mineralogicheskikh nauk. Moskva.
  7. Senin, B. V., Leonchik, M. I., Osherova, N. A. (2018). Osnovnyye itogi geologorazvedochnykh rabot i perspektivy razvitiya syr'yevoy bazy uglevodorodov v akvatoriyakh Chernomorsko-Kaspiyskogo regiona. Mineral'nyye resursy Rossii. Ekonomika i Upravleniye, 2, 7.
  8. Afanasenkov, A. P., Skvortsov, M. B., Nikishi, A. M., et al. (2008). Geological evolution and petroleum systems in the North Caspian region. Moscow University Geology Bulletin, 3, 3-9.
  9. Adams, T. (2000). Kaspiyskiye uglevodorody, politizatsiya regional'nykh truboprovodov i destabilizatsiya Kavkaza. Kavkazskiye regional'nyye issledovaniya, 5(1,2).
  10. Bagir-zade, F. M., Narimanov, A. A. (1988). Geologo-geokhimicheskiye osobennosti mestorozhdeniy Kaspiyskogo morya. Moskva: Nedra.
  11. Glumov, I. F., Malovitskiy, YA. P., Novikov, A. A., Senin, B. V. (2004). Regional'naya geologiya i neftegazonosnost' Kaspiyskogo morya. Moskva: OOO «Nedra-Biznestsentr».
  12. Guliyev, I. S., Fedorov, D. L., Kulakov, S. I. (2009). Neftegazonosnost' Kaspiyskogo regiona. Baku: Nafta-Press.
  13. Dmitriyeva, T. P., Parparova, G. M. (1981). Glubinnaya zonal'nost' katageneza rasseyannogo organicheskogo veshchestva paleogen-neogenovykh otlozheniy Azerbaydzhana. Azerbaydzhanskoye Neftyanoye Khozyaystvo, 4, 24-28.
  14. Kerimov, V. Yu., Rachinsky, M. Z., Mustaev, R. N., Osipov, A. V. (2018). Groundwater dynamics forecasting criteria of oil and gas occurrences in Alpine Mobile Belt Basins. Doklady Earth Sciences, 476(2), 209-212.
  15. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  16. Mustaev, R. N., Lavrenova, E. A., Kerimov, V. Y., Mamedov, R. A. (2021). Peculiarities of Tertiary petroleum systems evolution under prograding shelf environment on the continental margin of the East Siberian Sea. Journal of Petroleum Exploration and Production Technology, 11(10), 3617–3626
  17. Pepper, A. S., Corvi, P. J. (1995). Simple kinetic models of petroleum formation. Part I: oil and gas generation from kerogen. Marine and Petroleum Geology, 12(3), 291-319.
  18. Mangino, S., Priestley, K. (1998). The crustal structure of the Southern Caspian Region. Geophisical Journal International. Royal Astronomical Society, UK, 133(3), 630‒648.
  19. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  20. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  21. Zonenshain, L. P., le Pichon, X. (1986). Deep basins of the Black Sea and Caspian Sea as remnants of Mesozoic back - arc basins. Tectonophysics, 123, 181–211.
  22. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  23. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  24. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
  25. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  26. Kuznetsov, N. B., Kerimov, V. Yu., Osipov, A. V., Monakova, A. S. (2018). Geodynamics of the Ural Foredeep and geomechanical modeling of the origin of hydrocarbon accumulations. Geotectonics, 52(3), 297-311.
  27. Rachinsky, M. Z., Kerimov, V. Y. (2015). Fluid dynamics of oil and gas reservoirs / Ed. by Gorfunkel, M. V. NY, USA: Scrivener Publ. - Wiley.
  28. Kerimov, V. Y., Bondarev, A. V., Mustaev, R. N. (2017). Estimation of geological risks in searching and exploration of hydrocarbon deposits. Oil Industry, 8, 36–41.
  29. Mustaev, R. N. (2017). Geochemical environment of oil and gas occurrences in the South-Caspian basin based on the results of the study of Mud Volcano Ejecta. Oriental Journal of Chemistry, 33(4), 2036–2044.
  30. Kerimov, V., Osipov, A. V., Mustaev, R. N., et al. (2019). Conditions of formation and development of the void space at great depths. Oil Industry, 4, 22–27.
  31. Yandarbiyev, N. S., Kozlova, E. V., Mustaev, R., Odintsova, K. Y. (2015). Geochemistry of organic matter formation rocks of Khadum western Caucasus - source non-traditional accumulations. In: Geomodel 2015 - 17th Scientific - Practical Conference on Oil and Gas Geological Exploration and Development.
  32. Mustaev, R. N., Zakharchenko, M. V., Kerimova, L. I., Salihova, I. M. (2018). Chemical structure of kerogen of shale formations (by the example of the shale formations of the East European Platform). Oriental Journal of Chemistry, 34(5), 2317–2324.
  33. Zaicev, V. A., Kerimov, V. Y., Mustaev, R. N., Dmitrievskij, S. S. (2017). Geomechanical modeling of low permeability shale strata of the maikop series Ciscaucasia. In: EAGE/SPE Joint Workshop on Shale Science 2017: Prospecting and Development.
  34. Mustaev, R. N., Serov, S. G., Serikova, U. S., et al. (2017). Assessment of the oil and gas potential of the maikop series ciscaucasia based on the results of hydrocarbon systems modeling. In: Geomodel 2017 - 19th Science and Applied Research Conference on Oil and Gas Geological Exploration and Development.
  35. Leonov, M. G., Kerimov, V. Y., Mustaev, R. N., Hai, V. N. (2020). The origin and mechanism of formation of hydrocarbon deposits of the Vietnamese shelf. Russian Journal of Pacific Geology, 14(5), 387–398.
  36. Kerimov, V. Yu., Leonov, M. G., Mustaev, R. N., Guryanov, S. A. (2020). Postmagmatic tectonics of basement granites of the far eastern seas of Russia. Eurasian Mining, 2, 3–6.
  37. Kerimov, V. Yu., Mustaev, R. N., Etirmishli, G. D., Yusubov, N. P. (2021). Influence of modern geodynamics on the structure and tectonics of the Black sea - Caspian region. Eurasian Mining, 35(1), 3–8.
  38. Tibaldi, A., Oppizzi, P., Gierke, J., et al. (2019). Landslides near Enguri dam (Caucasus, Georgia) and possible seismotectonic effects. Natural Hazards and Earth System Sciences, 19(1), 71–91.
  39. Ziegler, P. (1989). Evolution of Laurussia: a study in Late Paleozoic Plate Tectonics. Dordrecht, Netherlands: Kluver Acad. Publ.
Read more Read less

DOI: 10.5510/OGP2022SI100656

E-mail: r.mustaev@mail.ru


R. N. Mustaev1, E. A. Lavrenova1, V. Vu. Kerimov1,2, N. Sh. Yandarbiev3, P. A. Romanov1

1S. Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia; 2Institute of Oil and Gas, ANAS, Baku, Azerbaijan; 3Lomonosov Moscow State University, Moscow, Russia

Modeling of hydrocarbons migration and accumulation processes in the Meso-Cenozoic complex of the Black Sea-Caspian Region


The article is devoted to the study of the processes of migration and accumulation of hydrocarbons in the Meso-Cenozoic complex of the Black Sea-Caspian region. The results of the modeling made it possible to study and model the processes of migration and accumulation of hydrocarbons in hydrocarbon systems in the Meso-Cenozoic complex of the Black Sea-Caspian region. All simulated petroleum systems are characterized by migration from the main reservoir, which lies directly above the simulated oil and gas source stratum, to the overlying ones. This is due to the peculiarities of the formation of sedimentary formations under conditions of alternating regressions and transgressions. The factor stimulating migration is the active tectonic regime of the studied sedimentary basins. Based on the modeling results, the conclusion about the wide development of hydrocarbon flow processes is consistent with the presence of multilayer deposits. It has been established that extended catagenetic zoning is typical for subsidence areas, which is due to the high rates of sedimentation and subsidence, and, accordingly, the large thickness of oil source deposits in the oil formation focus.

Keywords: Black Sea-Caspian region; modeling; migration; accumulation; oil and gas source strata; deposit; sediments; organic matter.

The article is devoted to the study of the processes of migration and accumulation of hydrocarbons in the Meso-Cenozoic complex of the Black Sea-Caspian region. The results of the modeling made it possible to study and model the processes of migration and accumulation of hydrocarbons in hydrocarbon systems in the Meso-Cenozoic complex of the Black Sea-Caspian region. All simulated petroleum systems are characterized by migration from the main reservoir, which lies directly above the simulated oil and gas source stratum, to the overlying ones. This is due to the peculiarities of the formation of sedimentary formations under conditions of alternating regressions and transgressions. The factor stimulating migration is the active tectonic regime of the studied sedimentary basins. Based on the modeling results, the conclusion about the wide development of hydrocarbon flow processes is consistent with the presence of multilayer deposits. It has been established that extended catagenetic zoning is typical for subsidence areas, which is due to the high rates of sedimentation and subsidence, and, accordingly, the large thickness of oil source deposits in the oil formation focus.

Keywords: Black Sea-Caspian region; modeling; migration; accumulation; oil and gas source strata; deposit; sediments; organic matter.

References

  1. Leonov, Yu. G., Volozh, Yu. A., Antipov, M. P., et al. (2010). Consolidated crust of the Caspian Region: zoning experience. Moscow: GEOS.
  2. Klavdiyeva, N. V. (2007). Tektonicheskoye pogruzheniye Predkavkazskikh krayevykh progibov v kaynozoye. Dissertatsiya na soiskaniye uchenoy stepeni kandidata geologo-mineralogicheskikh nauk. Moskva.
  3. Senin, B. V., Kerimov, V. Yu., Bogoyavlensky, V. I., et al. (2020). Oil and gas provinces of the Russian seas and adjacent water areas. Moscow: Nedra.
  4. Khain, V. E., Bogdanov, N. A. (2003). International tectonic map of the Caspian Sea and its surroundings. Scale 1:2500000. Moscow: PKO Kartografia.
  5. Afanasenkov, A. P., Nikishin, A. M., Obukhov, A. N. (2007). Eastern Black sea basin: geological structure and hydrocarbon potential. Moscow: Scientific World.
  6. Senin, B. V., Khain, V. E., Popkov, V. I. (2009). Black Sea / in the book. «Tectonics of the southern framing of the East European Platform (explanatory note to the tectonic map of the Black Sea-Caspian region. Scale 1:2 500 000)». Krasnodar: KUBGU.
  7. Senin, B. V., Leonchik, M. I., Osherova, N. A. (2018). Osnovnyye itogi geologorazvedochnykh rabot i perspektivy razvitiya syr'yevoy bazy uglevodorodov v akvatoriyakh Chernomorsko-Kaspiyskogo regiona. Mineral'nyye resursy Rossii. Ekonomika i Upravleniye, 2, 7.
  8. Afanasenkov, A. P., Skvortsov, M. B., Nikishi, A. M., et al. (2008). Geological evolution and petroleum systems in the North Caspian region. Moscow University Geology Bulletin, 3, 3-9.
  9. Bagir-zade, F. M., Narimanov, A. A. (1988). Geologo-geokhimicheskiye osobennosti mestorozhdeniy Kaspiyskogo morya. Moskva: Nedra.
  10. Glumov, I. F., Malovitskiy, YA. P., Novikov, A. A., Senin, B. V. (2004). Regional'naya geologiya i neftegazonosnost' Kaspiyskogo morya. Moskva: OOO «Nedra-Biznestsentr».
  11. Guliyev, I. S., Fedorov, D. L., Kulakov, S. I. (2009). Neftegazonosnost' Kaspiyskogo regiona. Baku: Nafta-Press.
  12. Dmitriyeva, T. P., Parparova, G. M. (1981). Glubinnaya zonal'nost' katageneza rasseyannogo organicheskogo veshchestva paleogen-neogenovykh otlozheniy Azerbaydzhana. Azerbaydzhanskoye Neftyanoye Khozyaystvo, 4, 24-28.
  13. Kerimov, V. Yu., Rachinsky, M. Z., Mustaev, R. N., Osipov, A. V. (2018). Groundwater dynamics forecasting criteria of oil and gas occurrences in Alpine Mobile Belt Basins. Doklady Earth Sciences, 476(2), 209-212.
  14. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  15. Mustaev, R. N., Lavrenova, E. A., Kerimov, V. Y., Mamedov, R. A. (2021). Peculiarities of Tertiary petroleum systems evolution under prograding shelf environment on the continental margin of the East Siberian Sea. Journal of Petroleum Exploration and Production Technology, 11(10), 3617–3626.
  16. Pepper, A. S., Corvi, P. J. (1995). Simple kinetic models of petroleum formation. Part I: oil and gas generation from kerogen. Marine and Petroleum Geology, 12(3), 291-319.
  17. Mangino, S., Priestley, K. (1998). The crustal structure of the Southern Caspian Region. Geophisical Journal International. Royal Astronomical Society, UK, 133(3), 630‒648.
  18. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  19. Zonenshain, L. P., le Pichon, X. (1986). Deep basins of the Black Sea and Caspian Sea as remnants of Mesozoic back - arc basins. Tectonophysics, 123, 181–211.
  20. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  21. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  22. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
  23. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  24. Rachinsky, M. Z., Kerimov, V. Y. (2015). Fluid dynamics of oil and gas reservoirs / Ed. by Gorfunkel, M. V. NY, USA: Scrivener Publ. - Wiley.
  25. Kerimov, V. Y., Bondarev, A. V., Mustaev, R. N. (2017). Estimation of geological risks in searching and exploration of hydrocarbon deposits. Oil Industry, 8, 36–41.
  26. Mustaev, R. N. (2017). Geochemical environment of oil and gas occurrences in the South-Caspian basin based on the results of the study of Mud Volcano Ejecta. Oriental Journal of Chemistry, 33(4), 2036–2044.
  27. Kerimov, V., Osipov, A. V., Mustaev, R. N., et al. (2019). Conditions of formation and development of the void space at great depths. Oil Industry, 4, 22–27.
  28. Yandarbiyev, N. S., Kozlova, E. V., Mustaev, R., Odintsova, K. Y. (2015). Geochemistry of organic matter formation rocks of Khadum western Caucasus - source non-traditional accumulations. In: Geomodel 2015 - 17th Scientific - Practical Conference on Oil and Gas Geological Exploration and Development.
  29. Mustaev, R. N., Zakharchenko, M. V., Kerimova, L. I., Salihova, I. M. (2018). Chemical structure of kerogen of shale formations (by the example of the shale formations of the East European Platform). Oriental Journal of Chemistry, 34(5), 2317–2324.
  30. Zaicev, V. A., Kerimov, V. Y., Mustaev, R. N., Dmitrievskij, S. S. (2017). Geomechanical modeling of low permeability shale strata of the maikop series Ciscaucasia. In: EAGE/SPE Joint Workshop on Shale Science 2017: Prospecting and Development.
  31. Mustaev, R. N., Serov, S. G., Serikova, U. S., et al. (2017). Assessment of the oil and gas potential of the maikop series ciscaucasia based on the results of hydrocarbon systems modeling. In: Geomodel 2017 - 19th Science and Applied Research Conference on Oil and Gas Geological Exploration and Development.
  32. Leonov, M. G., Kerimov, V. Y., Mustaev, R. N., Hai, V. N. (2020). The origin and mechanism of formation of hydrocarbon deposits of the Vietnamese shelf. Russian Journal of Pacific Geology, 14(5), 387–398.
  33. Kerimov, V. Yu., Mustaev, R. N., Etirmishli, G. D., Yusubov, N. P. (2021). Influence of modern geodynamics on the structure and tectonics of the Black sea - Caspian region. Eurasian Mining, 35(1), 3–8.
  34. Tibaldi, A., Oppizzi, P., Gierke, J., et al. (2019). Landslides near Enguri dam (Caucasus, Georgia) and possible seismotectonic effects. Natural Hazards and Earth System Sciences, 19(1), 71–91.
  35. Ziegler, P. (1989). Evolution of Laurussia: a study in Late Paleozoic Plate Tectonics. Dordrecht, Netherlands: Kluver Acad. Publ.
  36. Thomas, J. C., Grasso, J. R., Bossu, R., et al. (1999). Recent deformation in the Turan and South Kazakh platforms, western central Asia, and its relation to Arabia–Asia and India–Asia collisions. Tectonics, 18, 201–214.
Read more Read less

DOI: 10.5510/OGP2022SI100657

E-mail: r.mustaev@mail.ru


R. N. Mustaev1, E. A. Lavrenova1, V.Yu. Kerimov1,2, P. A. Romanov1

1S. Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia; 2Institute of Oil and Gas, ANAS, Baku, Azerbaijan

Forecast of hydrocarbons accumulations in the Meso-Cenozoic complex of the Black Sea-Caspian region from modeling results


As part of the analysis, it was found that in the Mesozoic, the basins under study were partly part of the Black Sea-South Caspian basin system, and at the later stages of evolution, some of them were involved in tectonic dislocations and, from the point of view of modern tectonic zoning, are partly part of the Alpine folded system. zones. The performed analysis made it possible to establish the main stages of the formation of the sedimentary section, to identify the depocenters of sedimentation on each of them and to reconstruct its evolution. As a result of the studies within the study area, four areas of stable subsidence (basin) were identified during the entire period of formation of the plate cover: Karkinitsky, Indolo-Kubansky, East Kuban and Terek-Caspian. Each of the basins is characterized by a unique evolution, which manifests itself in differences in tectonic mode, sedimentation rates. This determined the features of the geological structure of the basins - differences in the ratio of the thicknesses of the main sedimentary complexe.

Keywords: sedimentary basin development analysis; Scythian-Turanian basin system; oil and gas prospecting trends; troughs; deposits; regression; sedimentation; subsidence graph.

As part of the analysis, it was found that in the Mesozoic, the basins under study were partly part of the Black Sea-South Caspian basin system, and at the later stages of evolution, some of them were involved in tectonic dislocations and, from the point of view of modern tectonic zoning, are partly part of the Alpine folded system. zones. The performed analysis made it possible to establish the main stages of the formation of the sedimentary section, to identify the depocenters of sedimentation on each of them and to reconstruct its evolution. As a result of the studies within the study area, four areas of stable subsidence (basin) were identified during the entire period of formation of the plate cover: Karkinitsky, Indolo-Kubansky, East Kuban and Terek-Caspian. Each of the basins is characterized by a unique evolution, which manifests itself in differences in tectonic mode, sedimentation rates. This determined the features of the geological structure of the basins - differences in the ratio of the thicknesses of the main sedimentary complexe.

Keywords: sedimentary basin development analysis; Scythian-Turanian basin system; oil and gas prospecting trends; troughs; deposits; regression; sedimentation; subsidence graph.

References

  1. Borkov, F. P., Golovachev, E. M., Semenduyev, M. M., Shcherbakov, V. V. (1994). Geologicheskoye stroyeniye i neftegazonosnost' Azovskogo morya (po geofizicheskim dannym) /pod red. Malovitskogo, Ya. P. Moskva: IGiRGI.
  2. (1989). Al'bom strukturnykh kart i kart moshchnostey kaynozoyskikh otlozheniy Chernomorskoy vpadiny. M-b. 1:1 500 000. Moskva: GUGK SM SSSR.
  3. Khain, V. E., Bogdanov, N. A. (2003). International tectonic map of the Caspian Sea and its surroundings. Scale 1:2500000. Moscow: PKO Kartografia.
  4. Leonov, Yu. G., Volozh, Yu. A., Antipov, M. P., et al. (2010). Consolidated crust of the Caspian Region: zoning
    experience. Moscow: GEOS.
  5. Afanasenkov, A. P., Nikishin, A. M., Obukhov, A. N. (2007). Eastern Black sea basin: geological structure and hydrocarbon potential. Moscow: Scientific World.
  6. Senin, B. V., Khain, V. E., Popkov, V. I. (2009). Black Sea / in the book. «Tectonics of the southern framing of the East European Platform (explanatory note to the tectonic map of the Black Sea-Caspian region. Scale 1:2 500 000)». Krasnodar: KUBGU.
  7. Klavdiyeva, N. V. (2007). Tektonicheskoye pogruzheniye Predkavkazskikh krayevykh progibov v kaynozoye. Dissertatsiya na soiskaniye uchenoy stepeni kandidata geologo-mineralogicheskikh nauk. Moskva.
  8. Senin, B. V., Leonchik, M. I., Osherova, N. A. (2018). Osnovnyye itogi geologorazvedochnykh rabot i perspektivy razvitiya syr'yevoy bazy uglevodorodov v akvatoriyakh Chernomorsko-Kaspiyskogo regiona. Mineral'nyye resursy Rossii. Ekonomika i Upravleniye, 2, 7.
  9. Adams, T. (2000). Kaspiyskiye uglevodorody, politizatsiya regional'nykh truboprovodov i destabilizatsiya Kavkaza. Kavkazskiye regional'nyye issledovaniya, 5(1,2).
  10. Bagir-zade, F. M., Narimanov, A. A. (1988). Geologo-geokhimicheskiye osobennosti mestorozhdeniy Kaspiyskogo morya. Moskva: Nedra.
  11. Glumov, I. F., Malovitskiy, YA. P., Novikov, A. A., Senin, B. V. (2004). Regional'naya geologiya i neftegazonosnost' Kaspiyskogo morya. Moskva: OOO «Nedra-Biznestsentr».
  12. Guliyev, I. S., Fedorov, D. L., Kulakov, S. I. (2009). Neftegazonosnost' Kaspiyskogo regiona. Baku: Nafta-Press.
  13. Dmitriyeva, T. P., Parparova, G. M. (1981). Glubinnaya zonal'nost' katageneza rasseyannogo organicheskogo veshchestva paleogen-neogenovykh otlozheniy Azerbaydzhana. Azerbaydzhanskoye Neftyanoye Khozyaystvo, 4, 24-28.
  14. Kerimov, V. Yu., Rachinsky, M. Z., Mustaev, R. N., Osipov, A. V. (2018). Groundwater dynamics forecasting criteria of oil and gas occurrences in Alpine Mobile Belt Basins. Doklady Earth Sciences, 476(2), 209-212.
  15. Mustaev, R. N., Lavrenova, E. A., Kerimov, V. Y., Mamedov, R. A. (2021). Peculiarities of Tertiary petroleum systems evolution under prograding shelf environment on the continental margin of the East Siberian Sea. Journal of Petroleum Exploration and Production Technology, 11(10), 3617–3626.
  16. Pepper, A. S., Corvi, P. J. (1995). Simple kinetic models of petroleum formation. Part I: oil and gas generation from kerogen. Marine and Petroleum Geology, 12(3), 291-319.
  17. Mangino, S., Priestley, K. (1998). The crustal structure of the Southern Caspian Region. Geophisical Journal International. Royal Astronomical Society, UK, 133(3), 630‒648.
  18. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  19. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  20. Zonenshain, L. P., le Pichon, X. (1986). Deep basins of the Black Sea and Caspian Sea as remnants of Mesozoic back - arc basins. Tectonophysics, 123, 181–211.
  21. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  22. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
  23. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  24. Kuznetsov, N. B., Kerimov, V. Yu., Osipov, A. V., Monakova, A. S. (2018). Geodynamics of the Ural Foredeep and geomechanical modeling of the origin of hydrocarbon accumulations. Geotectonics, 52(3), 297-311.
  25. Rachinsky, M. Z., Kerimov, V. Y. (2015). Fluid dynamics of oil and gas reservoirs / Ed. by Gorfunkel, M. V. NY, USA: Scrivener Publ. - Wiley.
  26. Kerimov, V. Y., Bondarev, A. V., Mustaev, R. N. (2017). Estimation of geological risks in searching and exploration of hydrocarbon deposits. Oil Industry, 8, 36–41.
  27. Mustaev, R. N. (2017). Geochemical environment of oil and gas occurrences in the South-Caspian basin based on the results of the study of Mud Volcano Ejecta. Oriental Journal of Chemistry, 33(4), 2036–2044.
  28. Kerimov, V., Osipov, A. V., Mustaev, R. N., et al. (2019). Conditions of formation and development of the void space at great depths. Oil Industry, 4, 22–27.
  29. Yandarbiyev, N. S., Kozlova, E. V., Mustaev, R., Odintsova, K. Y. (2015). Geochemistry of organic matter formation rocks of Khadum western Caucasus - source non-traditional accumulations. In: Geomodel 2015 - 17th Scientific - Practical Conference on Oil and Gas Geological Exploration and Development.
  30. Mustaev, R. N., Zakharchenko, M. V., Kerimova, L. I., Salihova, I. M. (2018). Chemical structure of kerogen of shale formations (by the example of the shale formations of the East European Platform). Oriental Journal of Chemistry, 34(5), 2317–2324.
  31. Zaicev, V. A., Kerimov, V. Y., Mustaev, R. N., Dmitrievskij, S. S. (2017). Geomechanical modeling of low permeability shale strata of the maikop series Ciscaucasia. In: EAGE/SPE Joint Workshop on Shale Science 2017: Prospecting and Development.
  32. Mustaev, R. N., Serov, S. G., Serikova, U. S., et al. (2017). Assessment of the oil and gas potential of the maikop series ciscaucasia based on the results of hydrocarbon systems modeling. In: Geomodel 2017 - 19th Science and Applied Research Conference on Oil and Gas Geological Exploration and Development.
  33. Leonov, M. G., Kerimov, V. Y., Mustaev, R. N., Hai, V. N. (2020). The origin and mechanism of formation of hydrocarbon deposits of the Vietnamese shelf. Russian Journal of Pacific Geology, 14(5), 387–398.
  34. Kerimov, V. Yu., Mustaev, R. N., Etirmishli, G. D., Yusubov, N. P. (2021). Influence of modern geodynamics on the structure and tectonics of the Black sea - Caspian region. Eurasian Mining, 35(1), 3–8.
  35. Tibaldi, A., Oppizzi, P., Gierke, J., et al. (2019). Landslides near Enguri dam (Caucasus, Georgia) and possible seismotectonic effects. Natural Hazards and Earth System Sciences, 19(1), 71–91.
  36. Odonne, F., Imbert, P., Remy, D., et al. (2021). Surface structure, activity and microgravimetry modeling delineate contrasted mud chamber types below flat and conical mud volcanoes from Azerbaijan. Marine and Petroleum Geology, 134, 105315.
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DOI: 10.5510/OGP2022SI100658

E-mail: r.mustaev@mail.ru


V. Yu. Kerimov1,2, R. N. Mustaev1, E. A. Lavrenova1, N. Sh. Yandarbiev3

1S. Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia; 2Institute of Oil and Gas, ANAS, Baku, Azerbaijan; 3Lomonosov Moscow State University, Moscow, Russia

Generation and emigration of hydrocarbons in the Meso-Cenozoic complex of the Black Sea-Caspian region


As part of the assessment of the prospects for oil and gas potential in the study area, numerical modeling of generation and accumulation systems was performed, as a result of which the centers of hydrocarbon generation located within sedimentary basins were identified. Based on the levels of modern maturity and OM transformation of the established and proposed oil and gas source rocks, as well as the estimates of the specific densities of hydrocarbon emigration at 5 stratigraphic levels, independent generation centers were identified: Middle Jurassic, Lower Cretaceous, Eocene, Maikop and Miocene. Variations in the sinking rates of basins at different stages of their development had a critical impact on the realization of their generation potential by oil and gas source strata. As a result, source rocks of the same age in the basins overcame the critical moment at different times and by now have realized their potential to varying degrees. In basins with low subsidence rates, there is a delay in the emigration process with respect to generation, which is not typical for basins with high rates. The main promising complex within the study area is Cretaceous deposits, the hydrocarbon saturation of which is provided both by its own source rock and by flows from deeper horizons of the sedimentary cover. The second most important are the Paleogene complex.

Keywords: Black Sea-Caspian region; Meso-Cenozoic complex; cata-genetic zoning; modern maturity of deposits; degree of transformation of organic matter; generation; emigration; critical mome.

As part of the assessment of the prospects for oil and gas potential in the study area, numerical modeling of generation and accumulation systems was performed, as a result of which the centers of hydrocarbon generation located within sedimentary basins were identified. Based on the levels of modern maturity and OM transformation of the established and proposed oil and gas source rocks, as well as the estimates of the specific densities of hydrocarbon emigration at 5 stratigraphic levels, independent generation centers were identified: Middle Jurassic, Lower Cretaceous, Eocene, Maikop and Miocene. Variations in the sinking rates of basins at different stages of their development had a critical impact on the realization of their generation potential by oil and gas source strata. As a result, source rocks of the same age in the basins overcame the critical moment at different times and by now have realized their potential to varying degrees. In basins with low subsidence rates, there is a delay in the emigration process with respect to generation, which is not typical for basins with high rates. The main promising complex within the study area is Cretaceous deposits, the hydrocarbon saturation of which is provided both by its own source rock and by flows from deeper horizons of the sedimentary cover. The second most important are the Paleogene complex.

Keywords: Black Sea-Caspian region; Meso-Cenozoic complex; cata-genetic zoning; modern maturity of deposits; degree of transformation of organic matter; generation; emigration; critical mome.

References

  1. Tugolesov, D. A., Gorshkov, A. S., Meysner, L. B. i dr. (1985). Tektonika mezokaynozoyskikh otlozheniy Chernomorskoy vpadiny. Moskva: Nedra.
  2. Brunet, M.-F., Granath, J. W., Wilmsen, M. (2009). South Caspian to Central Iran basins: introduction. Geological Society, London, Special Publication, 312, 1–6.
  3. Leonov, Yu. G., Volozh, Yu. A., Antipov, M. P., et al. (2010). Consolidated crust of the Caspian Region: zoning experience. Moscow: GEOS.
  4. Senin, B. V., Khain, V. E., Popkov, V. I. (2009). Black Sea / in the book. «Tectonics of the southern framing of the East European Platform (explanatory note to the tectonic map of the Black Sea-Caspian region. Scale 1:2 500 000)». Krasnodar: KUBGU.
  5. Afanasenkov, A. P., Nikishin, A. M., Obukhov, A. N. (2007). Eastern Black sea basin: geological structure and hydrocarbon potential. Moscow: Scientific World.
  6. Klavdiyeva, N. V. (2007). Tektonicheskoye pogruzheniye Predkavkazskikh krayevykh progibov v kaynozoye. Dissertatsiya na soiskaniye uchenoy stepeni kandidata geologo-mineralogicheskikh nauk. Moskva.
  7. Senin, B. V., Leonchik, M. I., Osherova, N. A. (2018). Osnovnyye itogi geologorazvedochnykh rabot i perspektivy razvitiya syr'yevoy bazy uglevodorodov v akvatoriyakh Chernomorsko-Kaspiyskogo regiona. Mineral'nyye resursy Rossii. Ekonomika i Upravleniye, 2, 7.
  8. Afanasenkov, A. P., Skvortsov, M. B., Nikishi, A. M., et al. (2008). Geological evolution and petroleum systems in the North Caspian region. Moscow University Geology Bulletin, 3, 3-9.
  9. Adams, T. (2000). Kaspiyskiye uglevodorody, politizatsiya regional'nykh truboprovodov i destabilizatsiya Kavkaza. Kavkazskiye regional'nyye issledovaniya, 5(1,2).
  10. Bagir-zade, F. M., Narimanov, A. A. (1988). Geologo-geokhimicheskiye osobennosti mestorozhdeniy Kaspiyskogo morya. Moskva: Nedra.
  11. Pepper, A. S., Corvi, P. J. (1995). Simple kinetic models of petroleum formation. Part I: oil and gas generation from kerogen. Marine and Petroleum Geology, 12(3), 291-319.
  12. Glumov, I. F., Malovitskiy, YA. P., Novikov, A. A., Senin, B. V. (2004). Regional'naya geologiya i neftegazonosnost' Kaspiyskogo morya. Moskva: OOO «Nedra-Biznestsentr».
  13. Guliyev, I. S., Fedorov, D. L., Kulakov, S. I. (2009). Neftegazonosnost' Kaspiyskogo regiona. Baku: Nafta-Press.
  14. Dmitriyeva, T. P., Parparova, G. M. (1981). Glubinnaya zonal'nost' katageneza rasseyannogo organicheskogo veshchestva paleogen-neogenovykh otlozheniy Azerbaydzhana. Azerbaydzhanskoye Neftyanoye Khozyaystvo, 4, 24-28.
  15. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  16. Mustaev, R. N., Lavrenova, E. A., Kerimov, V. Y., Mamedov, R. A. (2021). Peculiarities of Tertiary petroleum systems evolution under prograding shelf environment on the continental margin of the East Siberian Sea. Journal of Petroleum Exploration and Production Technology, 11(10), 3617–3626.
  17. Mangino, S., Priestley, K. (1998). The crustal structure of the Southern Caspian Region. Geophisical Journal International. Royal Astronomical Society, UK, 133(3), 630‒648.
  18. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  19. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  20. Zonenshain, L. P., le Pichon, X. (1986). Deep basins of the Black Sea and Caspian Sea as remnants of Mesozoic back - arc basins. Tectonophysics, 123, 181–211.
  21. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  22. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  23. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  24. Rachinsky, M. Z., Kerimov, V. Y. (2015). Fluid dynamics of oil and gas reservoirs / Ed. by Gorfunkel, M. V. NY, USA: Scrivener Publ. - Wiley.
  25. Kerimov, V. Y., Bondarev, A. V., Mustaev, R. N. (2017). Estimation of geological risks in searching and exploration of hydrocarbon deposits. Oil Industry, 8, 36–41.
  26. Mustaev, R. N. (2017). Geochemical environment of oil and gas occurrences in the South-Caspian basin based on the results of the study of Mud Volcano Ejecta. Oriental Journal of Chemistry, 33(4), 2036–2044.
  27. Kerimov, V., Osipov, A. V., Mustaev, R. N., et al. (2019). Conditions of formation and development of the void space at great depths. Oil Industry, 4, 22–27.
  28. Yandarbiyev, N. S., Kozlova, E. V., Mustaev, R., Odintsova, K. Y. (2015). Geochemistry of organic matter formation rocks of Khadum western Caucasus - source non-traditional accumulations. In: Geomodel 2015 - 17th Scientific - Practical Conference on Oil and Gas Geological Exploration and Development.
  29. Mustaev, R. N., Zakharchenko, M. V., Kerimova, L. I., Salihova, I. M. (2018). Chemical structure of kerogen of shale formations (by the example of the shale formations of the East European Platform). Oriental Journal of Chemistry, 34(5), 2317–2324.
  30. Zaicev, V. A., Kerimov, V. Y., Mustaev, R. N., Dmitrievskij, S. S. (2017). Geomechanical modeling of low permeability shale strata of the maikop series Ciscaucasia. In: EAGE/SPE Joint Workshop on Shale Science 2017: Prospecting and Development.
  31. Mustaev, R. N., Serov, S. G., Serikova, U. S., et al. (2017). Assessment of the oil and gas potential of the maikop series ciscaucasia based on the results of hydrocarbon systems modeling. In: Geomodel 2017 - 19th Science and Applied Research Conference on Oil and Gas Geological Exploration and Development.
  32. Leonov, M. G., Kerimov, V. Y., Mustaev, R. N., Hai, V. N. (2020). The origin and mechanism of formation of hydrocarbon deposits of the Vietnamese shelf. Russian Journal of Pacific Geology, 14(5), 387–398.
  33. Kerimov, V. Yu., Leonov, M. G., Mustaev, R. N., Guryanov, S. A. (2020). Postmagmatic tectonics of basement granites of the far eastern seas of Russia. Eurasian Mining, 2, 3–6.
  34. Kerimov, V. Yu., Mustaev, R. N., Etirmishli, G. D., Yusubov, N. P. (2021). Influence of modern geodynamics on the structure and tectonics of the Black sea - Caspian region. Eurasian Mining, 35(1), 3–8.
  35. Ziegler, P. (1989). Evolution of Laurussia: a study in Late Paleozoic Plate Tectonics. Dordrecht, Netherlands: Kluver Acad. Publ.
  36. Natal’ina, B. A., Sengör, A. M. C. (2005). Late Palaeozoic to Triassic evolution of the Turan and Scythian platforms: the pre-history of the Palaeo‒Tethyan closure. Tectonophysics, 404, 175–202.
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DOI: 10.5510/OGP2022SI100659

E-mail: r.mustaev@mail.ru


R. N. Mustaev, V. Yu. Kerimov, E. A. Lavrenova, P. A. Romanov

S. Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia

Zones of hydrocarbons generation in the Meso-Cenozoic complex of the Black Sea-Caspian region


As a result of the studies carried out within the study area, four areas of stable subsidence (basin) were identified during the entire period of the formation of the plate cover: Karkinitsky, Indolo-Kubansky, East Kubansky and Terek-Caspian. Each of the basins is characterized by a unique evolution, which manifests itself in differences in the tectonic regime and sedimentation rates. This determined the features of the geological structure of the basins, the sources of generation within them and the critical moment characterizing the process of generation - migration - accumulation of hydrocarbons in the system. Overcoming the critical moment occurs in the centers of hydrocarbon generation, when more than 50% of hydrocarbons emigrated from the source rock and accumulated in traps. As a rule, the sources are confined to the most submerged parts of the sedimentary basin, in which the deposits are in more severe thermobaric conditions.

Keywords: sedimentary basin; hydrocarbon system; generation source; plate cover; tectonic regime; sedimentation rate; basin analysis.

As a result of the studies carried out within the study area, four areas of stable subsidence (basin) were identified during the entire period of the formation of the plate cover: Karkinitsky, Indolo-Kubansky, East Kubansky and Terek-Caspian. Each of the basins is characterized by a unique evolution, which manifests itself in differences in the tectonic regime and sedimentation rates. This determined the features of the geological structure of the basins, the sources of generation within them and the critical moment characterizing the process of generation - migration - accumulation of hydrocarbons in the system. Overcoming the critical moment occurs in the centers of hydrocarbon generation, when more than 50% of hydrocarbons emigrated from the source rock and accumulated in traps. As a rule, the sources are confined to the most submerged parts of the sedimentary basin, in which the deposits are in more severe thermobaric conditions.

Keywords: sedimentary basin; hydrocarbon system; generation source; plate cover; tectonic regime; sedimentation rate; basin analysis.

References

  1. Magoon, L. B., Dow, W. G. (1994). The petroleum system / In: The petroleum system—from source to trap. Vol. 60. Tulsa: AAPG Memoir.
  2. Bazhenova, O. K., Fadeyeva, N. P., Petrichenko, YU. A., Suslova, E. YU. (2004). Zakonomernosti nefteobrazovaniya v osadochnykh basseynakh Kavkazsko-Skifskogo regiona. Ekologicheskiy vestnik nauchnykh tsentrov Chernomorskogo ekonomicheskogo sotrudnichestva, 1.
  3. Khain, V. E., Bogdanov, N. A. (2003). International tectonic map of the Caspian Sea and its surroundings. Scale 1:2500000. Moscow: PKO Kartografia.
  4. Leonov, Yu. G., Volozh, Yu. A., Antipov, M. P., et al. (2010). Consolidated crust of the Caspian Region: zoning experience. Moscow: GEOS.
  5. Afanasenkov, A. P., Nikishin, A. M., Obukhov, A. N. (2007). Eastern Black sea basin: geological structure and hydrocarbon potential. Moscow: Scientific World.
  6. Senin, B. V., Khain, V. E., Popkov, V. I. (2009). Black Sea / in the book. «Tectonics of the southern framing of the East European Platform (explanatory note to the tectonic map of the Black Sea-Caspian region. Scale 1:2 500 000)». Krasnodar: KUBGU.
  7. Klavdiyeva, N. V. (2007). Tektonicheskoye pogruzheniye Predkavkazskikh krayevykh progibov v kaynozoye. Dissertatsiya na soiskaniye uchenoy stepeni kandidata geologo-mineralogicheskikh nauk. Moskva.
  8. Senin, B. V., Leonchik, M. I., Osherova, N. A. (2018). Osnovnyye itogi geologorazvedochnykh rabot i perspektivy razvitiya syr'yevoy bazy uglevodorodov v akvatoriyakh Chernomorsko-Kaspiyskogo regiona. Mineral'nyye resursy Rossii. Ekonomika i Upravleniye, 2, 7.
  9. Afanasenkov, A. P., Skvortsov, M. B., Nikishi, A. M., et al. (2008). Geological evolution and petroleum systems in the North Caspian region. Moscow University Geology Bulletin, 3, 3-9.
  10. Adams, T. (2000). Kaspiyskiye uglevodorody, politizatsiya regional'nykh truboprovodov i destabilizatsiya Kavkaza. Kavkazskiye regional'nyye issledovaniya, 5(1,2).
  11. Bagir-zade, F. M., Narimanov, A. A. (1988). Geologo-geokhimicheskiye osobennosti mestorozhdeniy Kaspiyskogo morya. Moskva: Nedra.
  12. Glumov, I. F., Malovitskiy, YA. P., Novikov, A. A., Senin, B. V. (2004). Regional'naya geologiya i neftegazonosnost' Kaspiyskogo morya. Moskva: OOO «Nedra-Biznestsentr».
  13. Guliyev, I. S., Fedorov, D. L., Kulakov, S. I. (2009). Neftegazonosnost' Kaspiyskogo regiona. Baku: Nafta-Press.
  14. Dmitriyeva, T. P., Parparova, G. M. (1981). Glubinnaya zonal'nost' katageneza rasseyannogo organicheskogo veshchestva paleogen-neogenovykh otlozheniy Azerbaydzhana. Azerbaydzhanskoye Neftyanoye Khozyaystvo, 4, 24-28.
  15. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  16. Mustaev, R. N., Lavrenova, E. A., Kerimov, V. Y., Mamedov, R. A. (2021). Peculiarities of Tertiary petroleum systems evolution under prograding shelf environment on the continental margin of the East Siberian Sea. Journal of Petroleum Exploration and Production Technology, 11(10), 3617–3626.
  17. Pepper, A. S., Corvi, P. J. (1995). Simple kinetic models of petroleum formation. Part I: oil and gas generation from kerogen. Marine and Petroleum Geology, 12(3), 291-319.
  18. Mangino, S., Priestley, K. (1998). The crustal structure of the Southern Caspian Region. Geophisical Journal International. Royal Astronomical Society, UK, 133(3), 630‒648.
  19. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  20. Zonenshain, L. P., le Pichon, X. (1986). Deep basins of the Black Sea and Caspian Sea as remnants of Mesozoic back - arc basins. Tectonophysics, 123, 181–211.
  21. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  22. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  23. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
  24. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  25. Kuznetsov, N. B., Kerimov, V. Yu., Osipov, A. V., Monakova, A. S. (2018). Geodynamics of the Ural Foredeep and geomechanical modeling of the origin of hydrocarbon accumulations. Geotectonics, 52(3), 297-311.
  26. Rachinsky, M. Z., Kerimov, V. Y. (2015). Fluid dynamics of oil and gas reservoirs / Ed. by Gorfunkel, M. V. NY, USA: Scrivener Publ. - Wiley.
  27. Kerimov, V. Y., Bondarev, A. V., Mustaev, R. N. (2017). Estimation of geological risks in searching and exploration of hydrocarbon deposits. Oil Industry, 8, 36–41.
  28. Mustaev, R. N. (2017). Geochemical environment of oil and gas occurrences in the South-Caspian basin based on the results of the study of Mud Volcano Ejecta. Oriental Journal of Chemistry, 33(4), 2036–2044.
  29. Kerimov, V., Osipov, A. V., Mustaev, R. N., et al. (2019). Conditions of formation and development of the void space at great depths. Oil Industry, 4, 22–27.
  30. Yandarbiyev, N. S., Kozlova, E. V., Mustaev, R., Odintsova, K. Y. (2015). Geochemistry of organic matter formation rocks of Khadum western Caucasus - source non-traditional accumulations. In: Geomodel 2015 - 17th Scientific - Practical Conference on Oil and Gas Geological Exploration and Development
  31. Mustaev, R. N., Zakharchenko, M. V., Kerimova, L. I., Salihova, I. M. (2018). Chemical structure of kerogen of shale formations (by the example of the shale formations of the East European Platform). Oriental Journal of Chemistry, 34(5), 2317–2324.
  32. Mustaev, R. N., Serov, S. G., Serikova, U. S., et al. (2017). Assessment of the oil and gas potential of the maikop series ciscaucasia based on the results of hydrocarbon systems modeling. In: Geomodel 2017 - 19th Science and Applied Research Conference on Oil and Gas Geological Exploration and Development.
  33. Leonov, M. G., Kerimov, V. Y., Mustaev, R. N., Hai, V. N. (2020). The origin and mechanism of formation of hydrocarbon deposits of the Vietnamese shelf. Russian Journal of Pacific Geology, 14(5), 387–398.
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  36. Kerimov, V. Yu., Mustaev, R. N., Etirmishli, G. D., Yusubov, N. P. (2021). Influence of modern geodynamics on the structure and tectonics of the Black sea - Caspian region. Eurasian Mining, 35(1), 3–8.
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DOI: 10.5510/OGP2022SI100660

E-mail: r.mustaev@mail.ru


B. V. Senin1, V. Yu. Kerimov2, R. N. Mustaev2, M.I. Leonchik1

1JSC «Soyuzmorgeo», Gelendzhik, Russia; 2Sergo Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia

Influence of structural-geodynamic systems on formation and distribution of hydrocarbon potential of the Black Sea-Caspian region


The article considers the results of the reconstruction and analysis of the geodynamic conditions for the formation of the main elements of their structure in the Black Sea-Caspian region, expressed in the features of the distribution of its structural-geodynamic systems of different ages. As structural-geodynamic systems, sets of elements of the block and zonal structure of the upper part of the earth's crust (basement and sedimentary cover) are considered, united by the same type (general) reaction from an external or internal source of tectonic energy in relation to the system during a certain phase of tectogenesis. The results of the research indicate that the predominantly offshore deep-water Black Sea and South Caspian provinces are controlled by tectonic megadepressions formed in the Alpine and recent epochs of tectogenesis. At the same time, both provinces include in their internal structure both elements that arose at different stages of Alpine and recent structure formation, and fragments of older plate and folded structures, reworked in these epochs and buried under Cenozoic or Cretaceous-Cenozoic deposits, to varying degrees. The latter, in turn, partially or completely control the position and configuration of the oil and gas regions within these provinces.

Keywords: structural and geodynamic systems; sedimentary basins of different ages; oil and gas source strata; prospects for oil and gas potential; phase composition; hydrocarbon potential.

The article considers the results of the reconstruction and analysis of the geodynamic conditions for the formation of the main elements of their structure in the Black Sea-Caspian region, expressed in the features of the distribution of its structural-geodynamic systems of different ages. As structural-geodynamic systems, sets of elements of the block and zonal structure of the upper part of the earth's crust (basement and sedimentary cover) are considered, united by the same type (general) reaction from an external or internal source of tectonic energy in relation to the system during a certain phase of tectogenesis. The results of the research indicate that the predominantly offshore deep-water Black Sea and South Caspian provinces are controlled by tectonic megadepressions formed in the Alpine and recent epochs of tectogenesis. At the same time, both provinces include in their internal structure both elements that arose at different stages of Alpine and recent structure formation, and fragments of older plate and folded structures, reworked in these epochs and buried under Cenozoic or Cretaceous-Cenozoic deposits, to varying degrees. The latter, in turn, partially or completely control the position and configuration of the oil and gas regions within these provinces.

Keywords: structural and geodynamic systems; sedimentary basins of different ages; oil and gas source strata; prospects for oil and gas potential; phase composition; hydrocarbon potential.

References

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  23. Murzin, Sh. M., Nikishin, A. M., Pankov, S. Yu., Poliakov, A. A. (2010). Chronostratigraphy and history of forming hydrocarbon systems of Jurassic-Cretaceous deposits of Central Caspian water area. Oil and Gas Geology, 1, 41-50.
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  30. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  31. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  32. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  33. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  34. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  35. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
  36. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  37. Kerimov, V. Yu., Mustaev, R. N., Yandarbiev, N. Sh., Movsumzade, E. M. (2017). Environment for the formation of shale oil and gas accumulations in low-permeability sequences of the Maikop Series, Fore-Caucasus. Oriental Journal of Chemistry, 33(2), 879-892.
  38. Kuznetsov, N. B., Kerimov, V. Yu., Osipov, A. V., Monakova, A. S. (2018). Geodynamics of the Ural Foredeep and geomechanical modeling of the origin of hydrocarbon accumulations. Geotectonics, 52(3), 297-311.
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DOI: 10.5510/OGP2022SI100661

E-mail: r.mustaev@mail.ru


E. A. Lavrenova, V. Yu. Kerimov, Yu. P. Panov, R. N. Mustaev, U. S. Serikova

Sergo Ordzhonikidze Russian State University for Geological Prospecting, Moscow, Russia

Breakthrough technologies in solving problems of geological exploration for oil and gas


The article describes the main factors for increasing the efficiency of exploration by introducing breakthrough technologies in production. It is shown that standard technologies cannot provide a solution to non-standard problems, because in this area they are extremely ineffective. The absolute orientation of the production process to standard technologies is determined. The main barriers to breakthrough technologies are analyzed. It is concluded that for the digital transformation of exploration, it is necessary to understand the applied value of breakthrough technologies, understand the need for their implementation, as well as adapt the existing production process in such a way that attracting, developing and introducing innovative approaches becomes its integral part. The key factor, in this case, is the solution to the problem of formalizing independent criteria and an understandable quantitative assessment of the effectiveness of the use of certain technologies.

Keywords: breakthrough technologies; exploration; production; barriers; processes; transformation; modernization.

The article describes the main factors for increasing the efficiency of exploration by introducing breakthrough technologies in production. It is shown that standard technologies cannot provide a solution to non-standard problems, because in this area they are extremely ineffective. The absolute orientation of the production process to standard technologies is determined. The main barriers to breakthrough technologies are analyzed. It is concluded that for the digital transformation of exploration, it is necessary to understand the applied value of breakthrough technologies, understand the need for their implementation, as well as adapt the existing production process in such a way that attracting, developing and introducing innovative approaches becomes its integral part. The key factor, in this case, is the solution to the problem of formalizing independent criteria and an understandable quantitative assessment of the effectiveness of the use of certain technologies.

Keywords: breakthrough technologies; exploration; production; barriers; processes; transformation; modernization.

References

  1. Christensen, C. M. (1997). The innovator's dilemma: when new technologies cause great firms to fail. Boston: Harvard Business School Press.
  2. Christensen, C. M. (2013). The innovator's solution: creating and sustaining successful growth. Boston: Harvard Business Press.
  3. Senin, B. V., Kerimov, V. Yu., Mustaev, R. N., Leonchik, M. I. (2022). Structural-geodynamic systems of the basement of the Black Sea–Caspian Sea region: evolution in the late Paleozoic‒Cenozoic. Geotektonika, 1, 27-50.
  4. Senin, B. V., Kerimov, V. Yu., Bogoyavlensky, V. I., et al. (2020). Oil and gas provinces of the Russian seas and adjacent water areas. Moscow: Nedra.
  5. Leonov, Yu. G., Volozh, Yu. A., Antipov, M. P., et al. (2010). Consolidated crust of the Caspian Region: zoning experience. Moscow: GEOS.
  6. Senin, B. V., Khain, V. E., Popkov, V. I. (2009). Black Sea / in the book. «Tectonics of the southern framing of the East European Platform (explanatory note to the tectonic map of the Black Sea-Caspian region. Scale 1:2 500 000)». Krasnodar: KUBGU.
  7. Klavdieva, N. V. (2007). Tectonic subsidence of Ciscaucasian marginal troughs in the Cenozoic. PhD Thesis. Moscow.
  8. Senin, B. V., Leonchik, M. I., Osherova, N. A. (2018). The main results of geological exploration and prospects for the development of the raw material base of hydrocarbons in the waters of the Black Sea-Caspian region. Mineral resources of Russia. Economics and Management, 2, 7.
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  12. Glumov, I. F., Malovitsky, Ya. P, Novikov, A. A., Senin, B. V. (2004). Regional geology and oil and gas potential of the Caspian Sea. Moscow: Nedra.
  13. Guliyev, I. S., Fedorov, D. L., Kulakov. S. I. (2009). Oil and gas potential of the Caspian region. Baku: Nafta-Press.
  14. Dmitrieva, T. P., Parparova, G. M. (1981). Deep zonality of catagenesis of dispersed organic matter in the Paleogene-Neogene deposits of Azerbaijan. Azerbaijan Oil Industry, 4, 24-28.
  15. Kerimov, V. Yu., Rachinsky, M. Z., Mustaev, R. N., Osipov, A. V. (2018). Groundwater dynamics forecasting criteria of oil and gas occurrences in Alpine Mobile Belt basins. Doklady Earth Sciences, 476(2), 209-21.
  16. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  17. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  18. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  19. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  20. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  21. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
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DOI: 10.5510/OGP2022SI100662

E-mail: r.mustaev@mail.ru


V. Sh. Gurbanov1, A. B. Hasanov1, G. G. Abbasova2

1Institute of Oil and Gas of ANAS, Baku, Azerbaijan; 2Azerbaijan State University of Oil and Industry, Baku, Azerbaijan

Breakthrough technologies in solving problems of geological exploration for oil and gas


The possibility of using the theory of fuzzy sets is considered. research in assessing the reserves of hard-to-recover deep-immersed hydrocarbons. At the same time, taking into account the complexity of the relationships between individual petrophysical characteristics, on the one hand, and the uncertainty of relevant information, on the other hand, fuzzy logic and flexible computing methods have been found to be more effective. In particular, the data clustering method (Sugeno fuzzy models) with the selection of child functions (membership functions) was tested. In this method, the prediction of the properties of reservoir rocks at great depths is based on a fuzzy linear regression reflecting the interdependence of properties and the natural uncertainty of information. The method was tested on real indicators of the quality of reservoirs of a well-known group of deposits in the Baku archipelago in Azerbaijan. The results of predicting the expected quality indicators of reservoirs at great depths indicate that in the section of the studied fields at depths of more than 4900 m, a decrease in the relative clay content and density of the reservoirs can be expected, but an increase in the permeability for liquid fluids is also possible.

Ketwords: deep-seated; hard-to-recover hydrocarbon reserves; fuzzy set theory; reservoir quality prediction.

The possibility of using the theory of fuzzy sets is considered. research in assessing the reserves of hard-to-recover deep-immersed hydrocarbons. At the same time, taking into account the complexity of the relationships between individual petrophysical characteristics, on the one hand, and the uncertainty of relevant information, on the other hand, fuzzy logic and flexible computing methods have been found to be more effective. In particular, the data clustering method (Sugeno fuzzy models) with the selection of child functions (membership functions) was tested. In this method, the prediction of the properties of reservoir rocks at great depths is based on a fuzzy linear regression reflecting the interdependence of properties and the natural uncertainty of information. The method was tested on real indicators of the quality of reservoirs of a well-known group of deposits in the Baku archipelago in Azerbaijan. The results of predicting the expected quality indicators of reservoirs at great depths indicate that in the section of the studied fields at depths of more than 4900 m, a decrease in the relative clay content and density of the reservoirs can be expected, but an increase in the permeability for liquid fluids is also possible.

Ketwords: deep-seated; hard-to-recover hydrocarbon reserves; fuzzy set theory; reservoir quality prediction.

References

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  6. Aliyarov, R. Y., Ramazanov, R. A. (2016). Prediction of multivariable properties of reservoir rocks byusing fuzzy clustering. In: 12th International Conference on Application of Fuzzy Systems and Soft Computing, ICAFS 2016.
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  8. Anifowose, F., Abdulraheem, A. (2010). Prediction of porosity and permeability of oil and gas reservoirs using hybrid computational intelligence models. In: Proceeding of North Africa Technical Conference and Exhibition, Cairo, Egypt.
  9. Olatunji, S. O., Selamat, A., Azeez, A. R. A. (2015, April). Harnessing the power of type-2 fuzzy logic system in the prediction of reservoir properties. SPE-178005-MS. In: SPE Saudi Arabia Section Annual Technical Symposium and Exhibition. Society of Petroleum Engineers.
  10. Cuddy, S. (1997, June). The application of the mathematics of fuzzy logic to petrophysics. SPWLA-1997-S. In: SPWLA 38th Annual Logging Symposium. Society of Petroleum Engineers.
  11. Aliyarov, R. Y., Hasanov, A. B. (2018). Forecasting of qualitative characteristics of oil reservoirs. In: Republican Scientific-Practical Conference devoted to the 95th Anniversary of H. Aliyev: Unity of science, education and production at the present stage of development.
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  13. Vendel'shteyn, B. Yu., Rezvanov, R. A. (1978). Geofizicheskiye metody opredeleniya parametrov kollektorov nefti i gaza: pri podschete zapasov i proyektirovanii razrabotki mestorozhdeniy. Moskva: Nedra.
  14. Kerimov, V. Yu., Rachinsky, M. Z., Mustaev, R. N., Osipov, A. V. (2018). Groundwater dynamics forecasting criteria of oil and gas occurrences in Alpine Mobile Belt basins. Doklady Earth Sciences, 476(2), 209-212.
  15. Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2016). Evaluation of the organic carbon content in the low-permeability shale formations (as in the case of the Khadum Suite in the Ciscaucasia region). Oriental Journal of Chemistry, 32(6), 3235-3241.
  16. Kerimov, V. Yu., Gorbunov, A. A., Lavrenova, E. A., Osipov, A. V. (2015). Models of hydrocarbon systems in the Russian Platform-Ural junction zone. Lithology and Mineral Resources, 50, 394-406.
  17. Lapidus, A. L., Kerimov, V. Y., Mustaev, R. N., et al. (2018). Caucasus Maykopian kerogenous shale sequences: generative potential. Oil Shale, 35(2), 113-127.
  18. Kerimov, V., Rachinsky, M., Mustaev, R., Serikova, U. (2018). Geothermal conditions of hydrocarbon formation in the South Caspian basin. Iranian Journal of Earth Sciences, 10(1), 78-89.
  19. Kerimov, V. Y., Mustaev, R. N., Osipov, A. V. (2018). Peculiarities of hydrocarbon generation at great depths in the crust. Doklady Earth Sciences, 483(1), 1413-1417.
  20. Kerimov V. Yu., Lapidus, A. L., Yandarbiev, N. Sh., et al. (2017). Physicochemical properties of shale strata in the Maikop series of Ciscaucasia. Solid Fuel Chemistry, 51(2), 122-130.
  21. Guliyev, I. S., Kerimov, V. Yu., Mustaev, R. N., Bondarev, A. V. (2018). The Estimation of the generation potential of the low permeable shale strata of the Maikop Caucasian series. SOCAR Proceedings, 1, 4-20.
  22. Kerimov, V. Yu., Mustaev, R. N., Yandarbiev, N. Sh., Movsumzade, E. M. (2017). Environment for the formation of shale oil and gas accumulations in low-permeability sequences of the Maikop series, Fore-Caucasus. Oriental Journal of Chemistry, 33(2), 879-892.
  23. Kuznetsov, N. B., Kerimov, V. Yu., Osipov, A. V., Monakova, A. S. (2018). Geodynamics of the Ural Foredeep and geomechanical modeling of the origin of hydrocarbon accumulations. Geotectonics, 52(3), 297-311.
  24. Rachinsky, M. Z., Kerimov, V. Y. (2015). Fluid dynamics of oil and gas reservoirs / Ed. by Gorfunkel, M. V. NY, USA: Scrivener Publ. - Wiley.
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DOI: 10.5510/OGP2022SI100663

E-mail: vaqifqurbanov@mail.ru


A. I. Sivtsev1, I. I. Rozhin2

1North-Eastern Federal University named after M.K. Ammosov, Yakutsk, Russia; 2Institute of Oil and Gas Problems of the Siberian Branch of the Russian Academy of Science, Yakutsk Scientific Center SB RAS, Yakutsk, Russia

Search for technogenic deposits under the permafrost-hydrate seal within the Vilyui syneclise


The paper considers the possibility of the formation of technogenic gas deposits under the permafrost-hydrate seal. As the most promising object, the upper part of the Mastakh gas condensate field section is justified and considered. By comparing the equilibrium conditions of hydrate formation with the pressure and temperature of the formation, the lower boundary of the permafrost-hydrate seal was determined, which forms a potential trap for the accumulation of gases due to their flows through the well space from deeper horizons of the field section. Based on the results of the conducted studies, maps of the sole of permafrost rocks and the sole of the hydrate formation zone were constructed. The potential volumes of flow gases from the Lower Jurassic deposit to the upper part of the section have been estimated. The necessity of additional study of the upper part of the Khapchagai mega-shaft section is noted both for the search for technogenic gas deposits and for preventing complications and accidents associated with technogenic deposits.

Keywords: Khapchagai megashaft of the Vilyui syneclise; behind-thecasing flows; Mastakhskoye field; permafrosthydrate seal; oil and gas potential.

The paper considers the possibility of the formation of technogenic gas deposits under the permafrost-hydrate seal. As the most promising object, the upper part of the Mastakh gas condensate field section is justified and considered. By comparing the equilibrium conditions of hydrate formation with the pressure and temperature of the formation, the lower boundary of the permafrost-hydrate seal was determined, which forms a potential trap for the accumulation of gases due to their flows through the well space from deeper horizons of the field section. Based on the results of the conducted studies, maps of the sole of permafrost rocks and the sole of the hydrate formation zone were constructed. The potential volumes of flow gases from the Lower Jurassic deposit to the upper part of the section have been estimated. The necessity of additional study of the upper part of the Khapchagai mega-shaft section is noted both for the search for technogenic gas deposits and for preventing complications and accidents associated with technogenic deposits.

Keywords: Khapchagai megashaft of the Vilyui syneclise; behind-thecasing flows; Mastakhskoye field; permafrosthydrate seal; oil and gas potential.

References

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  24. Pogodaev, A. V., Sitnikov, V. S., Lysov, B. A. (2012). Lithological and hydrodynamic features of gas content of the Upper Permian and Lower Triassic deposits of the Khapchagai region of the Vilyui oil and gas region. Geologiya Nefti i Gaza, 4, 2-12.
  25. Sivtsev, A. I. (2011). Study of the heterogeneity of the productive horizon T1-III and its influence on the geological and production characteristics of the deposit (on the example of the Srednevilyuyskoye gas condensate field). PhD Thesis. Yakutsk: Institute of Oil&Gas Problems SB RAS.
  26. Dmitrievskij, A. N., Tomilova, N. N., Yurova, M. P., Rudov, A. A. (2010). The structure and formation of the Nedzhely natural reservoir of the Khapchagai mega-shaft of the Vilyui syneclise. Geologiya Nefti i Gaza, 6, 29-43.
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  29. Zheleznyak, M. N., Semenov, V. P., Shats, M. M. (2019). Hydrocarbon resources of the Vilyui syneclise. Nauka i Tekhnika v Gazovoj Promyshlennosti, 3(79), 3-19.
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  33. Bogoyavlenskij, V. I., Bogoyavlenskij, I. V. (2018). Natural and man-made threats in the search, exploration and development of hydrocarbon deposits in the Arctic. Mineral'nye Resursy Rossii. Ekonomika i Upravlenie, 2, 60-70.
  34. Sivtsev, A.I ., Rozhin, I. I. (2011). Unconventional seal of permafrost-hydrate genesis. In: International Scientific and Practical Conference on Engineering Permafrost Management, dedicated to the XX-th anniversary of NPO Fundamentstroyarkos LLC. Tyumen: City-Press.
  35. Chernenko, V. B., Sivtsev, A. I. (2015). On the problem of relaxation of the Jurassic deposit of the Mastakhskoye gas condensate field. Nauka i Obrazovanie, 1, 16-21.
  36. Sivtsev, A. I. (2008). Reasons for the low development efficiency of the Tolon-Mastakhskoye gas condensate field. Oil and Gas Business, 20. http://www.ogbus.ru/authors/Sivtzev/Sivtzev_1.pdf. 20
  37. Izyumchenko, D. V., Kosachuk, G. P., Burakova, S. V., et al. (2014). Generalization of the development of reserves at the Mastakhskoye gas condensate field in Yakutia. Gazovaya Promyshlennost', S(708), 16-22.
  38. Surnin, A. I. (1986). Hydrogeological criteria of oil and gas content of the Vilyui syneclise. PhD Thesis. Tomsk.
  39. Frolov, S. V., Karnyushina, E. E., Korobova, N. I., et al. (2019). Structural features, sedimentary complexes and hydrocarbon systems of the Lena-Vilyui oil and gas basin. Georesursy, 21(2), 13-30.
  40. Afanasenkov, A. P., Volkov, R. P., Yakovlev, D. V. (2015). Anomalies of increased electrical resistance under the permafrost layer are a new exploratory sign of hydrocarbon deposits. Geologiya Nefti i Gaza, 6, 40-52.
  41. Yakushev, V. S. (2009). Formation of accumulations of natural gas and gas hydrates in the permafrost zone. PhD Thesis. Moscow: OOO VNIIGAZ.
  42. Sivtsev, A. I. (2013). Genesis of the Khapchagai and Loglor swells of the Vilyui syneclise. In: Second All-Russian Symposium with international participation and a youth scientific school dedicated to the memory of academicians N.A. Logacheva and E.E. Milanovsky. Continental rifting, accompanying processes. Irkutsk: Institute of the Earth's Crust, Siberian Branch of the Russian Academy of Sciences.
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DOI: 10.5510/OGP2022SI100666

E-mail: maraday@yandex.ru


A. P. Chizhov1,2, V. V. Mukhametshin1, V. E. Andreev1,2, L. S. Kuleshova1, A. V. Andreev1, A. R. Safiullina1

1Ufa State Petroleum Technological University, Ufa, Russia; 2Institute of strategic research of the Republic of Bashkortostan, Ufa, Russia

Geomechanical aspects of improving well drilling in difficult mining conditions


The research carried out made it possible to improve the technology of drilling wells in difficult mining conditions. The proposed approach is based on a systematic approach to the consolidation of borehole walls and its separation from exposed systems of reservoir rocks. The studies cover the unstable rocks of the sedimentary cover of the eastern edge of the Russian platform and the conditions for drilling wells in them. The holes are oriented and horizontal. Field tests have shown that the proposed technical and technological solutions enable the successful solution of the set scientific and technical problems. It is recommended to test the proposed solutions in other regions of Russia and abroad.

Keywords: well construction; geomechanics; wall stability; improvement; systemic approach; complex mining conditions.

The research carried out made it possible to improve the technology of drilling wells in difficult mining conditions. The proposed approach is based on a systematic approach to the consolidation of borehole walls and its separation from exposed systems of reservoir rocks. The studies cover the unstable rocks of the sedimentary cover of the eastern edge of the Russian platform and the conditions for drilling wells in them. The holes are oriented and horizontal. Field tests have shown that the proposed technical and technological solutions enable the successful solution of the set scientific and technical problems. It is recommended to test the proposed solutions in other regions of Russia and abroad.

Keywords: well construction; geomechanics; wall stability; improvement; systemic approach; complex mining conditions.

References

  1. Polyakov, V. N., Chizhov, A. P., Kotenev, Yu. A., Mukhametshin, V. Sh. (2019). Results of system drilling techniques and completion of oil and gas wells. IOP Conference Series: Earth and Environmental Science (IPDME 2019 – International Workshop on Innovations and Prospects of Development of Mining Machinery and Electrical Engineering), 378, 012119, 1–7.
  2. Polyakov, V. N., Zeigman, Yu. V., Kotenev, Yu. A., et al. (2018). System solution for technological problems of well construction completion. Nanotechnologies in Construction, 10 (1), 72–87.
  3. Andreev, V. E., Chizhov, A. P., Chibisov, A. V., Mukhametshin, V. Sh. (2019). Forecasting the use of enhanced oil recovery methods in oilfields of Bashkortostan. IOP Conference Series: Earth and Environmental Science (International Symposium «Earth sciences: history, contemporary issues and prospects»), 350, 012025, 1–6.
  4. Ishbaev, G. G, Dilmiev, M. R, Mileyko, A. A, et al. (2017). Development and experience of the cement gel mud geldrill application on Tatyshlinskaya field of the Republic of Bashkortostan. Drilling and Oil, 4, 23-27.
  5. Bone, K., Bradley, B., Kale, I. (2019, May). Next-generation hybrid drill bit produces exceptional drilling dynamics and time-saving improvements. OTC-29440-MS. In: Offshore Technology Conference.
  6. Dolezal, T., Felderhoff, F., Bruton, G. (2011, October, November). Expansion of field testing and application of new hybrid drill bit. SPE-146737-MS. In: SPE Annual Technical Conference and Exhibition. Society of Petroleum Engineers.
  7. Polyakov, V. N., Averyanov, A. P., Postnikov, S. A., Chizhov, A. P. (2013). Grout jetting techniques for boreholes (advantages, limitations and efficient application). Construction of Oil and Gas Wells on Land and Sea, 5, 21-22.
  8. Dykstra, M. W., Armenta, M. A., Mathew Ain, F. A., et al. (2018, April, May). Converting power to performance: gulf of Mexico examples of an optimization workflow for bit selection, drilling system design and operation. OTC-29065-MS. In: Offshore Technology Conference. Society of Petroleum Engineers.

 

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DOI: 10.5510/OGP2022SI100651

E-mail: 4ap@list.ru


R.T. Akhmetov, L.S. Kuleshova, V.V. Mukhametshin, P.M. Malyshev, A.R. Safiullina

Ufa State Petroleum Technological University, Ufa, Russia

Substantiation of the absolute permeability model taking into account the pore tortuosity factor according to the capillarimetric investigations results


The paper shows that the capillary pressure curves parameters of reservoirs in Western Siberia can be estimated with good accuracy by the formation residual water saturation value, and when quantifying the absolute permeability, the hydraulic tortuosity is taken into account as an inverse power function of effective porosity. It is shown that the proposed absolute permeability model makes it possible to estimate the reservoir permeability with sufficiently high accuracy.

Keywords: model; permeability, porosity; hydraulic tortuosity; capillary pressure curves; residual water saturation.

The paper shows that the capillary pressure curves parameters of reservoirs in Western Siberia can be estimated with good accuracy by the formation residual water saturation value, and when quantifying the absolute permeability, the hydraulic tortuosity is taken into account as an inverse power function of effective porosity. It is shown that the proposed absolute permeability model makes it possible to estimate the reservoir permeability with sufficiently high accuracy.

Keywords: model; permeability, porosity; hydraulic tortuosity; capillary pressure curves; residual water saturation.

References

  1. Mikhailov, N.N. (2011). Petrophysical support for novel technologies for the re-extraction of residual oil from manmodified pools. Karotazhnik, 7(205), 126-137.
  2. Dmitriev, N.M., Maksimov, V.M., Mikhailov, N.N., Kuzmichev, A.N. (2015). Experimental study of filtration properties of hydrocarbons anisotropic fields. Drilling and Oil, 11, 6-9.
  3. Grishchenko, V.A., Tsiklis, I.M., Mukhametshin, V.Sh., Yakupov, R.F. (2021). Methodological Approaches to Increasing the Flooding System Efficiency at the Later Stage of Reservoir Development. SOCAR Proceedings, SI2, 161-171.
  4. Fattakhov, I.G., Kuleshova, L.S., Bakhtizin, R.N., et al. (2021). Complexing the hydraulic fracturing simulation results when hybrid acid-propant treatment performing and with the simultaneous hydraulic fracture initiation in separated intervals. SOCAR Proceedings, SI2, 103-111.
  5. Mikhailov, N.N., Gurbatova, I.P., Motorova, K.A., Sechina, L.S. (2016). New representations of wettability of oil and gas reservoirs. Oil Industry, 7, 80-85.
  6. Economides, M., Oligney, R., & Valkó, P. (2007). Unified fracture design bridging the gap between theory and practice. Izhevsk: Institute of Computer Research.
  7. Khisamiev, T.R., Bashirov, I.R., Mukhametshin, V.Sh., et al. (2021). Results of the Development System Optimization and Increasing the Efficiency of Carbonate Reserves Extraction of the Turney Stage of the Chetyrmansky Deposit. SOCAR Proceedings, SI2, 131-142.
  8. Yakupov, R.F., Khakimzyanov, I.N., Mukhametshin, V.V., Kuleshova, L.S. (2021). Hydrodynamic model application to create a reverse oil cone in water-oil zones. SOCAR Proceedings, 2, 54-61.
  9. Veliyev, E.F. (2021). Application of amphiphilic block-polymer system for emulsion flooding. SOCAR Proceedings, 3, 78-86.
  10. Dmitrievsky, A.N. (2017). Resource-innovative strategy for the development of the russian economy. Oil Industry, 5, 6-7.
  11. Mukhametshin, V.Sh., Khakimzyanov, I.N., Bakhtizin, R.N., Kuleshova, L.S. (2021). Differentiation and grouping of complex-structured oil reservoirs in carbonate reservoirs in development management problems solving. SOCAR Proceedings, SI1, 88-97.
  12. Grishchenko, V.A., Asylgareev, I.N., Bakhtizin, R.N., et al. (2021). Methodological approach to the resource base efficiency monitoring in oil fields development. SOCAR Proceedings, SI2, 229-237.
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  14. Veliyev, E.F. (2021). Polymer dispersed system for in-situ fluid diversion. Prospecting and development of oil and gas fields, 1(78), 61–72.
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  17. Khakimzyanov, I.N., Mukhametshin, V.Sh., Bakhtizin, R.N., Sheshdirov, R.I. (2021). Determination of Well Spacing Volumetric factor for assessment of final oil recovery in reservoirs developed by horizontal wells. SOCAR Proceedings, 2, 47-53.
  18. Veliyev, E.F., Aliyev, A.A., Mammadbayli, T.E. (2021). Machine learning application to predict the efficiency of water coning prevention techniques implementation. SOCAR Procceedings, 1, 104-113.
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  26. Olarte, J.D., Haldar, S., Said, R., et al. (2011, May). New approach of water shut off techniques in open holes - and world first applications of using fiber optic services with tension-compression sub. In: SPE/DGS Saudi Arabia Section Technical Symposium and Exhibition. Society of Petroleum Engineers.
  27. Rabaev, R.U., Chibisov, A.V., Kotenev, A.Yu., et al. (2021). Mathematical modelling of carbonate reservoir dissolution and prediction of the controlled hydrochloric acid treatment efficiency. SOCAR Proceedings, 2, 40-46.
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  29. Lake, Larry. (2005). Fundamentals of methods for increasing oil recovery. Austin: University of Texas.
  30. Kanevskaya, R.D. (1999). Mathematical modeling of oil and gas field development using hydraulic fracturing. Moscow: Nedra-Business Center.
  31. Akhmetov, R.T., Mukhametshin, V.V., Andreev, A.V. Sultanov, Sh.Kh. (2017). Some testing results of productive strata wettability index forecasting technique. SOCAR Procеedings, 4, 83-87.
  32. Akhmetov, R.T., Kuleshova, L.S., Rabaev, R.U., et al. (2021). Filtering pore chanels distribution density in Western Siberia. SOCAR Proceedings, SI2, 221-228.
  33. Muslimov, R.Kh. (2009). Features of exploration and development of oil fields in a market economy. Kazan: FEN.
  34. Lysenko, V.D. (2009). Development of oil fields. Effective methods. Moscow: Nedra-Business Center.
  35. Purcell, W.R. (1949). Capillary pressures - their measurement using mercury and the calculation of permeability therefrom. Trans AIME, 186.
  36. Romm, E.S. (1985). Structural models of the pore space of rocks. Leningrad: Nedra.
  37. Akhmetov, R.T., Malyarenko, A.M., Kuleshova, L.S., et al. (2021). Quantitative assessment of hydraulic tortuosity of oil and gas reservoirs in Western Siberia based on capillarimetric studies. SOCAR Proceedings, 2, 77-84.
  38. Akhmetov, R.T., Mukhametshin, V.V. (2018). Range of application of the Brooks-Corey model for approximation of capillary curves in reservoirs of Western Siberia. Advances in Engineering Research, 157, 5–8.
  39. Akhmetov, R.T., Andreev, A.V., Mukhametshin, V.V. (2017). Residual oil saturation and the displacement factor prediction methodology based on geophysical studies data to evaluate efficiency of nanotechnologies application. Nanotechnologies in Construction, 9(5), 116–133.
  40. Akhmetov, R.T., Kuleshova, L.S., Mukhametshin, V.V. (2019). Application of the Brooks-Corey model in the conditions of lower cretaceous deposits in terrigenous reservoirs of Western Siberia. IOP Conference Series: Materials Science and Engineering, 560, 012004, 1-4.
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DOI: 10.5510/OGP2022SI100639

E-mail: vv@of.ugntu.ru


V. V. Mukhametshin, L. S. Kuleshova

Ufa State Petroleum Technological University, Ufa, Russia

Improving the lower cretaceous deposits development efficiency in Western Siberia employing enhanced oil recovery


For the eleven groups of oil deposits in terrigenous reservoirs of Western Siberia, confined to the Lower Cretaceous deposits, the most effective techniques for enhanced oil recovery were selected based on a criteria analysis, followed by the numerical modeling application in terms of the final oil recovery factor. The need for a differentiated approach when using enhanced oil recovery techniques is specified. An algorithm for replicating the results obtained in the fields that did not participate in the study based on the analogy method is presented.

Keywords: enhanced oil recovery techniques; oil recovery factor; hard-to-recover reserves; analogy method; differentiation and grouping of oil deposits.

For the eleven groups of oil deposits in terrigenous reservoirs of Western Siberia, confined to the Lower Cretaceous deposits, the most effective techniques for enhanced oil recovery were selected based on a criteria analysis, followed by the numerical modeling application in terms of the final oil recovery factor. The need for a differentiated approach when using enhanced oil recovery techniques is specified. An algorithm for replicating the results obtained in the fields that did not participate in the study based on the analogy method is presented.

Keywords: enhanced oil recovery techniques; oil recovery factor; hard-to-recover reserves; analogy method; differentiation and grouping of oil deposits.

References

  1. Mukhametshin, V.V., Bakhtizin, R.N., Kuleshova, L.S., et al. (2021). Screening and assessing the conditions for effective oil recovery enhancing techniques application for hard to recover high-water cut reserves. SOCAR Proceedings, SI2, 48-56.
  2. Kontorovich А.Е., Beyzel' A.L., Borisov E.V. et al. (2017). Facial zonation of bazhenovo, georgievka and vasyugan horizons in the West Siberian sedimentary basin. The Jurassic system of Russia: problems of stratigraphy and paleogeography. Seventh All-Russian Meeting. Moscow: Geological Institute of the Russian Academy of Sciences.
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DOI: 10.5510/OGP2022SI100640

E-mail: vv@of.ugntu.ru


L. S. Kuleshova, V. Sh. Mukhametshin, R. U. Rabaev, Sh. Kh. Sultanov, R. R. Stepanova, D. I. Kobishcha

Ufa State Petroleum Technological University, Ufa, Russia

Evaluation and use of the productivity coefficient for development management problems solving


It is shown that in the conditions of low-productive carbonate deposits with hard-to-recover reserves, confined to the Middle Carboniferous deposits of the Birskaya saddle and the Perm-Bashkir arch of the Volga-Ural oil and gas province, the productivity factor determined during the well flow rate stabilization period after development largely determines the final technological development indicators. We propose geological and statistical models allowing determining the productivity values to the greatest extent reflecting the real reservoir properties at the point of opening it with a well. The obtained results make it possible to evaluate the effectiveness of measures aimed at improving the efficiency of managerial decisions to achieve the maximum return on the oil companies’ assets.

Keywords: productivity factor; geological and statistical models; empirical base models, oil recovery factor; geological and physical parameters; technological development indicators.

It is shown that in the conditions of low-productive carbonate deposits with hard-to-recover reserves, confined to the Middle Carboniferous deposits of the Birskaya saddle and the Perm-Bashkir arch of the Volga-Ural oil and gas province, the productivity factor determined during the well flow rate stabilization period after development largely determines the final technological development indicators. We propose geological and statistical models allowing determining the productivity values to the greatest extent reflecting the real reservoir properties at the point of opening it with a well. The obtained results make it possible to evaluate the effectiveness of measures aimed at improving the efficiency of managerial decisions to achieve the maximum return on the oil companies’ assets.

Keywords: productivity factor; geological and statistical models; empirical base models, oil recovery factor; geological and physical parameters; technological development indicators.

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DOI: 10.5510/OGP2022SI100641

E-mail: vv@of.ugntu.ru


V.Sh. Mukhametshin

Ufa State Petroleum Technological University, Ufa, Russia

Oil recovery factor express evaluation during carbonate reservoirs development in natural regimes


The article provides a geological and field analysis of the productivity factor and specific balance reserves per well influence on the current and final oil recovery factor during the development of the deposit in natural conditions. The analysis was carried out for various groups of deposits in carbonate reservoirs confined to the lower and middle Carboniferous systems of the Volga-Ural oil and gas province. Empirical dependencies allowing the deposits development monitoring, evaluating the effectiveness of using secondary and tertiary enhanced oil recovery techniques, making sound management decisions to improve the development process not only for the objects of analysis but also for analogue objects have been obtained.

Keywords: oil recovery; well grid density; specific balance reserves; oil flow rate; production; oil recovery factor; productivity factor.

The article provides a geological and field analysis of the productivity factor and specific balance reserves per well influence on the current and final oil recovery factor during the development of the deposit in natural conditions. The analysis was carried out for various groups of deposits in carbonate reservoirs confined to the lower and middle Carboniferous systems of the Volga-Ural oil and gas province. Empirical dependencies allowing the deposits development monitoring, evaluating the effectiveness of using secondary and tertiary enhanced oil recovery techniques, making sound management decisions to improve the development process not only for the objects of analysis but also for analogue objects have been obtained.

Keywords: oil recovery; well grid density; specific balance reserves; oil flow rate; production; oil recovery factor; productivity factor.

References

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  38. Mukhametshin, V.V., Kuleshova, L.S. (2020). On uncertainty level reduction in managing waterflooding of the deposits with hard to extract reserves. Bulletin of the Tomsk Polytechnic University. Geo Assets Engineering, 331, 5, 140–146.
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  41. Mukhametshin, V.Sh., Khakimzyanov, I.N., Bakhtizin, R.N., Kuleshova, L.S. (2021). Differentiation and grouping of complex-structured oil reservoirs in carbonate reservoirs in development management problems solving. SOCAR Proceedings, SI1, 88-97.
  42. Andreev, A.V., Mukhametshin, V.Sh., Kotenev, Yu.A. (2016). Deposit productivity forecast in carbonate reservoirs with hard to recover reserves. SOCAR Procеedings, 3, 40-45.
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DOI: 10.5510/OGP2022SI100642

E-mail: vv@of.ugntu.ru


V. Sh. Mukhametshin

Ufa State Petroleum Technological University, Ufa, Russia

Oil flooding in carbonate reservoirs management


The article presents the analysis and generalization of the process of deposits flooding in the carbonate reservoirs of the Tournaisian stage Kizelovsky horizon of one relatively homogeneous group of fields of the Volga-Ural oil and gas province which was carried out in order to obtain the possibility of increasing the water injection managing efficiency into the reservoir to increase the oil recovery. Geological and physical parameters having a predominant effect on the sweeping efficiency and the injectivity profile variation along the thickness in injection wells have been identified. Models making it possible to assess and predict the injection sweep factor and variation of the injectivity profile by thickness using current geological and field information both at the stage of putting fields into development and at the stage of full drilling out of deposits have been obtained. The obtained results are proposed to be used to improve the development management efficiency both at the objects of study themselves and at analogue deposits.

Keywords: development management; carbonate reservoir; flooding; multivariate models; injection sweep ratio; correlation coefficient; injectivity profile.

The article presents the analysis and generalization of the process of deposits flooding in the carbonate reservoirs of the Tournaisian stage Kizelovsky horizon of one relatively homogeneous group of fields of the Volga-Ural oil and gas province which was carried out in order to obtain the possibility of increasing the water injection managing efficiency into the reservoir to increase the oil recovery. Geological and physical parameters having a predominant effect on the sweeping efficiency and the injectivity profile variation along the thickness in injection wells have been identified. Models making it possible to assess and predict the injection sweep factor and variation of the injectivity profile by thickness using current geological and field information both at the stage of putting fields into development and at the stage of full drilling out of deposits have been obtained. The obtained results are proposed to be used to improve the development management efficiency both at the objects of study themselves and at analogue deposits.

Keywords: development management; carbonate reservoir; flooding; multivariate models; injection sweep ratio; correlation coefficient; injectivity profile.

References

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  2. Khisamiev, T.R., Bashirov, I.R., Mukhametshin, et al. (2021). Results of the development system optimization and increasing the efficiency of carbonate reserves extraction of the turney stage of the chetyrmansky deposit. SOCAR Proceedings, SI2, 131-142.
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  8. Mukhametshin, V.V., Bakhtizin, R.N., Kuleshova, L.S., et al. (2021). Screening and assessing the conditions for effective oil recovery enhancing techniques application for hard to recover high-water cut reserves. SOCAR Proceedings, SI2, 48-56.
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  12. Shakhverdiev, A.Kh., Shestopalov, Yu.V. (2019). Qualitative analysis of quadratic polynomial dynamical systems associated with the modeling and monitoring of oil fields. Lobachevskii journal of mathematics, 40(10), 1695–1710.
  13. Grishchenko, V.A., Tsiklis, I.M., Mukhametshin, V.Sh., Yakupov, R.F. (2021). Methodological approaches to increasing the flooding system efficiency at the laterstage of reservoir development. SOCAR Proceedings, SI2, 161-171.
  14. Veliyev, E.F. (2021). Polymer dispersed system for in-situ fluid diversion. Prospecting and Development of Oil and Gas Fields, 1(78), 61–72.
  15. Mukhametshin, V.V., Kuleshova, L.S. (2020). On uncertainty level reduction in managing waterflooding of the deposits with hard to extract reserves. Bulletin of the Tomsk Polytechnic University. Geo Assets Engineering, 331, 5, 140–146.
  16. Imqam, A., Bai, B., Wei, M., et al. (2016). Use of Hydrochloric Acid to remove filter-cake damage from preformed particle gel during conformance-control treatments. SPE Production & Operations, 31(3), 11.
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  22. Veliyev, E.F. (2020). Mechanisms of polymer retention in porous media. SOCAR Procеedings, 3, 126-134.
  23. Grishchenko, V.A., Pozdnyakova, T.V., Mukhamadiyev, B.M., et al. (2021). Improving the carbonate reservoirs development efficiency on the example of the tournaisian stage deposits. SOCAR Proceedings, SI2, 238-247.
  24. Veliyev, E.F. (2020). Review of modern in-situ fluid diversion technologies. SOCAR Proceedings, 2, 50-66.
  25. Mukhametshin, V.V., Kuleshova, L.S. (2019). Justification of low-productive oil deposits flooding systems in the conditions of limited information amount. SOCAR Procеedings, 2, 16–22.
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DOI: 10.5510/OGP2022SI100643

E-mail: vv@of.ugntu.ru


I.N. Khakimzyanov1,2, V.Sh. Mukhametshin2, A.V. Lifantyev1, R.N. Bakhtizin2, R.I. Sheshdirov1, I.V. Kuchinskaya1

1"TatNIPIneft" PJSC "Tatneft" named after V.D. Shashin, Bugulma, Russia; 2Ufa State Petroleum Technological University, Ufa, Russia

Regulation of development of the main deposit of the рashi horizon bavlinskoye field by limiting water injection


At the beginning of the 1950s, edge waterflooding, the first of many types of waterflooding, was applied to terrigenous deposits of the Pashi horizon of the Bavlinskoye field. Based on the results of geological and technological modeling, it was obtained that the development of low-permeability sections of the reservoir, intermediate zones in the area of the injection and contraction production rows lags behind and, undoubtedly, leads to a rapid water cut of the produced product and a decrease in the oil recovery factor, therefore the authors in this work conducted numerical experiments to regulate the front advancement of the injected water to the deposits of the Pashi object by limiting the volume of water injected into the reservoir using geological and technological 3D modeling. Analysis of the results of the conducted numerical experiments to regulate the development of the reservoir of the Pashi object by limiting the volume of water injection showed that in this way it is possible to improve the technological indicators of development (increase oil production and reduce water production) and select the most acceptable amount of injected water, which will be technologically and economically viable.

Keywords: in-line and in-line waterflooding; oil-bearing contour; injection restriction; daily production; industrial experiment; injection wells ring; well injectivity; monolithic sandstones; filtration flow direction.

At the beginning of the 1950s, edge waterflooding, the first of many types of waterflooding, was applied to terrigenous deposits of the Pashi horizon of the Bavlinskoye field. Based on the results of geological and technological modeling, it was obtained that the development of low-permeability sections of the reservoir, intermediate zones in the area of the injection and contraction production rows lags behind and, undoubtedly, leads to a rapid water cut of the produced product and a decrease in the oil recovery factor, therefore the authors in this work conducted numerical experiments to regulate the front advancement of the injected water to the deposits of the Pashi object by limiting the volume of water injected into the reservoir using geological and technological 3D modeling. Analysis of the results of the conducted numerical experiments to regulate the development of the reservoir of the Pashi object by limiting the volume of water injection showed that in this way it is possible to improve the technological indicators of development (increase oil production and reduce water production) and select the most acceptable amount of injected water, which will be technologically and economically viable.

Keywords: in-line and in-line waterflooding; oil-bearing contour; injection restriction; daily production; industrial experiment; injection wells ring; well injectivity; monolithic sandstones; filtration flow direction.

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  16. Veliyev, E.F. (2020). Mechanisms of polymer retention in porous media. SOCAR Procеedings, 3, 126-134.
  17. Khisamiev, T.R., Bashirov, I.R., Mukhametshin, V.Sh., et al. (2021). Results of the development system optimization and increasing the efficiency of carbonate reserves extraction of the turney stage of the chetyrmansky deposit. SOCAR Proceedings, SI2, 131-142.
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DOI: 10.5510/OGP2022SI100644

E-mail: vv@of.ugntu.ru


Y.A. Ibragimov

Education, training and certification department, SOCAR, Baku, Azerbaijan

Conducting emergency operations in wells with narrowed zones in the production string


The article provides information that the production string along the entire length consists of casing pipes of the same type-size with different wall thicknesses, in some cases thicker in the upper part, relatively less thick in the lower part; on the reduction of the inner diameter with some methods of restoring the tightness of casing strings. Conducting emergency operations in such wells stopped during operation by milling the emergency ends or their annulus, as a necessary measure, with milling cutters of a smaller diameter causes even greater deformation of the emergency ends up to breaks. And also for catching the wider lower part of the production string eccentrically located or leaning against the wall of the pipe, due to the impossibility of using a centering device – funnels, down-laid fishing tools without a centering device, although they freely pass through the narrowed zone of the production string located above the emergency end, due to the impossibility of covering with a bell, as well as directing the pipe rod into the inner surface of the fishing pipe, fishing work is unsuccessful. In these cases, the use of an eccentric sub in the assembly of the bottom of the drill string, the use of a milling cutter of the smallest diameter ensures the milling of the emergency end located below the narrowed zone, with a milling cutter of the required diameter corresponding to the inner diameter of the production string, and also provides the possibility of catching an emergency pipe without a centering device. Information about the design features and their advantages in the relevant downhole conditions is given.

Keywords: emergency end; milling cutters; fishing tools; BHA; eccentric sub.

The article provides information that the production string along the entire length consists of casing pipes of the same type-size with different wall thicknesses, in some cases thicker in the upper part, relatively less thick in the lower part; on the reduction of the inner diameter with some methods of restoring the tightness of casing strings. Conducting emergency operations in such wells stopped during operation by milling the emergency ends or their annulus, as a necessary measure, with milling cutters of a smaller diameter causes even greater deformation of the emergency ends up to breaks. And also for catching the wider lower part of the production string eccentrically located or leaning against the wall of the pipe, due to the impossibility of using a centering device – funnels, down-laid fishing tools without a centering device, although they freely pass through the narrowed zone of the production string located above the emergency end, due to the impossibility of covering with a bell, as well as directing the pipe rod into the inner surface of the fishing pipe, fishing work is unsuccessful. In these cases, the use of an eccentric sub in the assembly of the bottom of the drill string, the use of a milling cutter of the smallest diameter ensures the milling of the emergency end located below the narrowed zone, with a milling cutter of the required diameter corresponding to the inner diameter of the production string, and also provides the possibility of catching an emergency pipe without a centering device. Information about the design features and their advantages in the relevant downhole conditions is given.

Keywords: emergency end; milling cutters; fishing tools; BHA; eccentric sub.

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DOI: 10.5510/OGP2022SI100645

E-mail: yusif.ibrahimov1954@gmail.com


A. A. Isaev1, M. D. Valeev2, I. Sh. Mingulov3, V. V. Mukhametshin3, L. S. Kuleshova3, Sh. G. Mingulov3, Z. N. Sagitova3

1LLC MC «Sheshmaoil», Almetyevsk, Russia; 2JSC RDE «VM Sistema», Kumlekul, Russia; 3Ufa State Petroleum Technological University, Ufa, Russia

Experimental studies of heat carrier injection to the wellbottom through a column of hollow rod at viscous oil deposits


One of the well-known methods for the viscous oil reserves development in the fields is the coolant injection into the bottomhole formation zone. Hollow rods or double-walled tubing forming vacuum chambers with low heat loss to the surrounding rocks are used for this purpose. The thermal fluid can be supplied to the bottom of the wells to heat the incoming product to reduce the fluid viscosity in the pump lift. The technology of another way to employ the thermal fluid injection through hollow rods is the thermal fluid injection directly into the formation through injection wells to heat the formation fluid and increase its filtration rate. The article describes the results of experimental work on the technologies implementing in Sheshmaoil Management Company LLC, which showed the fundamental possibility and prospects for their application.

Keywords: coolant injection; hollow rod string; tubing; oil viscosity; condensed steam.

One of the well-known methods for the viscous oil reserves development in the fields is the coolant injection into the bottomhole formation zone. Hollow rods or double-walled tubing forming vacuum chambers with low heat loss to the surrounding rocks are used for this purpose. The thermal fluid can be supplied to the bottom of the wells to heat the incoming product to reduce the fluid viscosity in the pump lift. The technology of another way to employ the thermal fluid injection through hollow rods is the thermal fluid injection directly into the formation through injection wells to heat the formation fluid and increase its filtration rate. The article describes the results of experimental work on the technologies implementing in Sheshmaoil Management Company LLC, which showed the fundamental possibility and prospects for their application.

Keywords: coolant injection; hollow rod string; tubing; oil viscosity; condensed steam.

References

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  4. Khisamiev, T. R., Bashirov, I. R., Mukhametshin, V. Sh., et al. (2021). Results of the development system optimization and increasing the efficiency of carbonate reserves extraction of the Turney stage of the Chetyrmansky deposit. SOCAR Proceedings, SI2, 131-142.
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  7. Grishchenko, V. A., Rabaev, R. U., Asylgareev, I. N., et al. (2021). Methodological approach to optimal geological and technological characteristics determining when planning hydraulic fracturing at multilayer facilities. SOCAR Proceedings, SI2, 182-191.
  8. Yakupov, R. F., Mukhametshin, V. Sh., Tyncherov, K. T. (2018). Filtration model of oil coning in a bottom waterdrive reservoir. Periodico Tche Quimica, 15(30), 725-733.
  9. Veliyev, E. F. (2021). Polymer dispersed system for in-situ fluid diversion. Prospecting and Development of Oil and Gas Fields, 1(78), 61–72.
  10. Grishchenko, V. A., Pozdnyakova, T. V., Mukhamadiyev, B. M., et al. (2021). Improving the carbonate reservoirs development efficiency on the example of the Tournaisian stage deposits. SOCAR Proceedings, SI2, 238-247.
  11. Suleimanov, B. A., Veliyev, E. F. (2016). The effect of particle size distribution and the nano-sized additives on the quality of annulus isolation in well cementing. SOCAR Proceedings, 4, 4-10.
  12. Veliyev, E. F. (2020). Mechanisms of Polymer Retention in Porous Media. SOCAR Procеedings, 3, 126-134.
  13. Khakimzyanov, I. N., Mukhametshin, V. Sh., Bakhtizin, R. N., et al. (2021). Justification of necessity to consider well interference in the process of well pattern widening in the Bavlinskoye oil field pashiyan formation. SOCAR Proceedings, SI1, 77-87.
  14. Mukhametshin, V. V., Bakhtizin, R. N., Kuleshova, L. S., et al. (2021). Screening and assessing the conditions for effective oil recovery enhancing techniques application for hard to recover high-water cut reserves. SOCAR Proceedings, SI2, 48-56.
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  17. Khuzin, R. R., Bakhtizin, R. N., Andreev, V. E., et al. (2021). Oil recovery enhancement by reservoir hydraulic compression technique employment. SOCAR Proceedings, SI1, 98-108.
  18. Sergeev, V. V., Sharapov, R. R., Kudymov, A. Yu., et al. (2020). Experimental research of the colloidal systems with nanoparticles influence on filtration characteristics of hydraulic fractures. Nanotechnologies in Construction, 12(2), 100–107.
  19. Mukhametshin, V. V. (2021). Improving the efficiency of managing the development of the West Siberian oil and gas province fields on the basis of differentiation and grouping. Russian Geology and Geophysics, 62(12), 1373–1384.
  20. Veliyev, E. F. (2021). Application of amphiphilic block-polymer system for emulsion flooding. SOCAR Proceedings, 3, 78-86.
  21. Fattakhov, I. G., Kuleshova, L. S., Bakhtizin, R. N., et al. (2021). Complexing the hydraulic fracturing simulation results when hybrid acid-propant treatment performing and with the simultaneous hydraulic fracture initiation in separated intervals. SOCAR Proceedings, SI2, 103-111.
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  23. Yakupov, R. F., Mukhametshin, V. Sh., Khakimzyanov, I. N., Trofimov, V. E. (2019). Optimization of reserve production from water oil zones of D3ps horizon of Shkapovsky oil field by means of horizontal wells. Georesursy, 21, 3, 55-61.
  24. Yakupov, R. F., Khakimzyanov, I. N., Mukhametshin, V. V., Kuleshova, L.S. (2021). Hydrodynamic model application to create a reverse oil cone in water-oil zones. SOCAR Proceedings, 2, 54-61.
  25. Veliyev, E. F., Aliyev, A. A., Mammadbayli, T. E. (2021). Machine learning application to predict the efficiency of water coning prevention techniques implementation. SOCAR Procceedings, 1, 104-113.
  26. Khakimzyanov, I. N., Mukhametshin, V. Sh., Bakhtizin, R. N., Sheshdirov, R. I. (2021). Determination of well spacing volumetric factor for assessment of final oil recovery in reservoirs developed by horizontal wells. SOCAR Proceedings, 2, 47-53.
  27. Kuleshova, L. S., Fattakhov, I. G., Sultanov, Sh. Kh., et al. (2021). Experience in conducting multi-zone hydraulic fracturing on the oilfield of PJSC «Tatneft». SOCAR Proceedings, SI1, 68-76.
  28. Gasumov, E. R., Gasumov, R. A. (2020). Innovative risk management for geological and technical (technological) measures at oil and gas fields. SOCAR Proceedings, 2, 8-16.
  29. Grishchenko, V. A., Tsiklis, I. M., Mukhametshin, V. Sh., Yakupov, R. F. (2021). Methodological approaches to increasing the flooding system efficiency at the later stage of reservoir development. SOCAR Proceedings, SI2, 161-171.
  30. Akhmetov, R. T., Malyarenko, A. M., Kuleshova, L. S., et al. (2021). Quantitative assessment of hydraulic tortuosity of oil and gas reservoirs in Western Siberia based on capillarimetric studies. SOCAR Proceedings, 2, 77-84.
  31. Veliyev, E. F. (2020). Review of modern in-situ fluid diversion technologies. SOCAR Proceedings, 2, 50-66.
  32. Mukhametshin, V. Sh., Khakimzyanov, I. N., Bakhtizin, R. N., Kuleshova, L. S. (2021). Differentiation and grouping of complex-structured oil reservoirs in carbonate reservoirs in development management problems solving. SOCAR Proceedings, SI1, 88-97.
  33. Yashchenko, I. G., Polishchuk, Yu. M. (2008). Hard-to-recover oil reserves of the Volga-Ural oil and gas province. Oilfield Engineering, 8, 11-18.
  34. Khisamov, R. S. (2015). Efficiency of production of hard-to-recover oil reserves. Almetyevsk: Almetyevsk State Oil Institute.
  35. Akhmadullin, R. R., Trifonov, V. V. (2004). High-viscosity oil recovery in Nurlatneft NGDU. Oil Industry, 7, 31-33.
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  40. Isaev, A. A., Nanish, S. V., Golev, K. V., et al. (2020). Development of the equipment for reducing heat loss when injecting a working medium (steam). Oil. Gas. Innovations, 8(237), 54-57.
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  45. Akhunov R. M., Tsink A. A., Isaev A. A. (2019). An action plan to enhance oil recovery from heavy crude oilfield. Exposition Oil & Gas, 1(68), 34-37.
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DOI: 10.5510/OGP2022SI100646

E-mail: isaev@shoil.tatais.ru


L. S. Kuleshova, V. Sh. Mukhametshin

Ufa State Petroleum Technological University, Ufa, Russia

Research and justification of innovative techniques employment for hydrocarbons production in difficult conditions


For the difficult conditions of development of various groups of facilities in the carbonate reservoirs of the eastern part of the Volga-Ural oil and gas province, models have been created that allow the search and justification of the use of innovative techniques of hydrocarbon production. Algorithms for forecasting the final oil recovery factor under conditions of heterogeneous information and various kinds of uncertainties are proposed. The use of the algorithm of the method of group arguments accounting for the construction of geological and statistical models is substantiated. The physical interpretation of the obtained models of the oil recovery process is given. The need for a differentiated approach in solving various problems of managing the development of various groups of objects in carbonate reservoirs is shown.

Keywords: oil recovery factor; stepwise regression analysis; group accounting of arguments method.

For the difficult conditions of development of various groups of facilities in the carbonate reservoirs of the eastern part of the Volga-Ural oil and gas province, models have been created that allow the search and justification of the use of innovative techniques of hydrocarbon production. Algorithms for forecasting the final oil recovery factor under conditions of heterogeneous information and various kinds of uncertainties are proposed. The use of the algorithm of the method of group arguments accounting for the construction of geological and statistical models is substantiated. The physical interpretation of the obtained models of the oil recovery process is given. The need for a differentiated approach in solving various problems of managing the development of various groups of objects in carbonate reservoirs is shown.

Keywords: oil recovery factor; stepwise regression analysis; group accounting of arguments method.

References

  1. Mandrick, I. E., Panakhov, G. M., Shakhverdiev, A. Kh. (2010). Scientific-methodological and technological bases for optimizing the process of increasing oil recovery. Moscow: Oil industry.
  2. Muslimov, R. Kh. (2009). Features of exploration and development of oil fields in a market economy. Kazan: FEN.
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  4. Kuleshova, L. S., Fattakhov, I. G., Sultanov, Sh. Kh., et al. (2021). Experience in conducting multi-zone hydraulic fracturing on the oilfield of PJSC «Tatneft». SOCAR Proceedings, SI1, 68-76.
  5. Fattakhov, I. G., Kuleshova, L. S., Bakhtizin, R. N., et al. (2021). Complexing the hydraulic fracturing simulation results when hybrid acid-propant treatment performing and with the simultaneous hydraulic fracture initiation in separated intervals. SOCAR Proceedings, SI2, 103-111.
  6. Gasumov, E. R., Gasumov, R. A. (2020). Innovative risk management for geological and technical (technological) measures at oil and gas fields. SOCAR Proceedings, 2, 8-16.
  7. Grishchenko, V. A., Tsiklis, I. M., Mukhametshin, V. Sh., Yakupov, R. F. (2021). Methodological approaches to increasing the flooding system efficiency at the later stage of reservoir development. SOCAR Proceedings, SI2, 161-171.
  8. Akhmetov, R. T., Malyarenko, A. M., Kuleshova, L. S., et al. (2021). Quantitative assessment of hydraulic tortuosity of oil and gas reservoirs in Western Siberia based on capillarimetric studies. SOCAR Proceedings, 2, 77-84.
  9. Economides, J. M., Nolte, K. I. (2000). Reservoir stimulation. West Sussex, England: John Wiley and Sons.
  10. Grishchenko, V. A., Rabaev, R. U., Asylgareev, I. N., et al. (2021). Methodological approach to optimal geological and technological characteristics determining when planning hydraulic fracturing at multilayer facilities. SOCAR Proceedings, SI2, 182-191.
  11. Mukhametshin, V. V., Bakhtizin, R. N., Kuleshova, L. S., et al. (2021). Screening and assessing the conditions for effective oil recovery enhancing techniques application for hard to recover high-water cut reserves. SOCAR Proceedings, SI2, 48-56.
  12. Veliyev, E. F. (2020). Review of modern in-situ fluid diversion technologies. SOCAR Proceedings, 2, 50-66.
  13. Sun, S. Q., Wan, J. C. (2002). Geological analogs usage rates high in global survey. Oil & Gas Journal, 100(46), 49-50.
  14. Rabaev, R. U., Chibisov, A. V., Kotenev, A. Yu., et al. (2021). Mathematical modelling of carbonate reservoir dissolution and prediction of the controlled hydrochloric acid treatment efficiency. SOCAR Proceedings, 2, 40-46.
  15. Mukhametshin, V. V., Andreev, V. E. (2018). Increasing the efficiency of assessing the performance of techniques aimed at expanding the use of resource potential of oilfields with hard-to-recover reserves. Bulletin of the Tomsk Polytechnic University. Geo Assets Engineering, 329(8), 30–36.
  16. Antonevich, Yu. S., Efimov, A. V. (2013). Integrated approach to investment portfolio management in oil and gas companies. Oil Industry, 12, 83-85.
  17. Rzayeva, S. J. (2019). New microbiological method of oil recovery increase containing highly mineralized water. SOCAR Procеedings, 2, 38-44.
  18. Khakimzyanov, I. N., Mukhametshin, V. Sh., Bakhtizin, R. N., et al. (2021). Justification of necessity to consider well interference in the process of well pattern widening in the Bavlinskoye oil field pashiyan formation. SOCAR Proceedings, SI1, 77-87.
  19. Mukhametshin, V. V., Kuleshova, L. S. (2019). Justification of low-productive oil deposits flooding systems in the conditions of limited information amount. SOCAR Procеedings, 2, 16–22.
  20. Mirzadzhanzade, A. Kh., Khasanov, M. M., Bakhtizin, R. N. (2004). Modeling of oil and gas production processes. Nonlinearity, nonequilibrium, uncertainty. Moscow, Izhevsk: Institute of Computer Research.
  21. Veliyev, E. F. (2020). Mechanisms of polymer retention in porous media. SOCAR Procеedings, 3, 126-134.
  22. Mukhametshin, V. Sh. (1989). Dependence of crude-oil recovery on the well spacing density during development of low-producing carbonate deposits. Oil Industry, 12, 26–29.
  23. Mukhametshin, V. V. (2021). Improving the efficiency of managing the development of the West Siberian oil and gas province fields on the basis of differentiation and grouping. Russian Geology and Geophysics, 62(12), 1373–1384.
  24. Suleimanov, B. A., Ismailov, F. S., Veliyev, E. F., Dyshin, O. A. (2013). The influence of light metal nanoparticles on the strength of polymer gels used in oil industry. SOCAR Proceedings, 2, 24-28.
  25. Ter-Sarkisov, R. M., Maksimov, V. M., Basniev, K. S., et al. (2012). Geological and hydrothermodynamic modeling of oil and gas fields. Izhevsk: Izhevsk Institute of Computer Research.
  26. Sergeev, V. V., Sharapov, R. R., Kudymov, A. Yu., et al. (2020). Experimental research of the colloidal systems with nanoparticles influence on filtration characteristics of hydraulic fractures. Nanotechnologies in Construction, 12(2), 100–107.
  27. Khuzin, R. R., Bakhtizin, R. N., Andreev, V. E., et al. (2021). Oil recovery enhancement by reservoir hydraulic compression technique employment. SOCAR Proceedings, SI1, 98-108.
  28. Dmitrievsky, A. N. (2017). Resource-innovative strategy for the development of the Russian economy. Oil
    Industry, 5, 6-7.
  29. Mukhametshin, V. Sh., Khakimzyanov, I. N. (2021). Features of grouping low-producing oil deposits in carbonate reservoirs for the rational use of resources within the Ural-Volga region. Journal of Mining Institute, 252, 896-907.
  30. Shpurov, I. V., Zakharenko, V. A., Fursov, A. Ya. (2015). A differentiated analysis of the degree of involvement and the depletion of stocks of jurassic deposits in the Western Siberian oil-and-gas province. Subsoil using – XXI Century, 1(51), 12-19.
  31. Yakupov, R. F., Khakimzyanov, I. N., Mukhametshin, V. V., Kuleshova, L. S. (2021). Hydrodynamic model application to create a reverse oil cone in water-oil zones. SOCAR Proceedings, 2, 54-61.
  32. Veliyev, E. F. (2021). Polymer dispersed system for in-situ fluid diversion. Prospecting and Development of Oil and Gas Fields, 1(78), 61–72.
  33. Veliyev, E. F., Aliyev, A. A., Mammadbayli, T. E. (2021). Machine learning application to predict the efficiency of water coning prevention techniques implementation. SOCAR Procceedings, 1, 104-113.
  34. Khakimzyanov, I. N., Mukhametshin, V. Sh., Bakhtizin, R. N., Sheshdirov, R. I. (2021). Determination of well spacing volumetric factor for assessment of final oil recovery in reservoirs developed by horizontal wells. SOCAR Proceedings, 2, 47-53.
  35. Grishchenko, V. A., Asylgareev, I. N., Bakhtizin, R. N., et al. (2021). Methodological approach to the resource base efficiency monitoring in oil fields development. SOCAR Proceedings, SI2, 229-237.
  36. Muslimov, R. Kh. (2008). Methods of increasing an oil fields development efficiency at a late stage. Oil Industry, 3, 30-35.
  37. Khisamiev, T. R., Bashirov, I. R., Mukhametshin, V. Sh., et al. (2021). Results of the development system optimization and increasing the efficiency of carbonate reserves extraction of the turney stage of the Chetyrmansky deposit. SOCAR Proceedings, SI2, 131-142.
  38. Khatmullin, I. F., Khatmullina, E. I., Khamitov, A. T., et al. (2015). Identification of zones with poor displacement in fields with hard-to-recover reserves. Oil Industry, 1, 74-79.
  39. Grishchenko, V. A., Gareev, R. R., Tsiklis, I. M., et al. (2021). Expanding the amount of preferential royalty facilities with hard-to-recover oil reserves. SOCAR Proceedings, SI2, 8-18.
  40. Kontorovich, A. E., Livshits, V. R. (2017). New methods of assessment, structure, and development of oil and gas resources of mature petroleum provinces (Volga-Ural province). Russian Geology and Geophysics, 58 (12), 1453-1467.
  41. Grishchenko, V. A., Pozdnyakova, T. V., Mukhamadiyev, B. M., et al. (2021). Improving the carbonate reservoirs development efficiency on the example of the tournaisian stage deposits. SOCAR Proceedings, SI2, 238-247.
  42. Mukhametshin, V. Sh., Khakimzyanov, I. N., Bakhtizin, R. N., Kuleshova, L. S. (2021). Differentiation and grouping of complex-structured oil reservoirs in carbonate reservoirs in development management problems solving. SOCAR Proceedings, SI1, 88-97.
  43. Mukhametshin, V. Sh., Kuleshova, L. S., Safiullina, A. R. (2021). Grouping and determining oil reservoirs in carbonate reservoirs by their productivity at the stage of geological exploration. Bulletin of the Tomsk Polytechnic University. Geo Аssets Engineering, 332(12), 43–51.
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DOI: 10.5510/OGP2022SI100647

E-mail: vsh@of.ugntu.ru


V. H. Nurullayev, F. T. Murvatov, Z. A. Abdullayeva

Scientific Research Institute «Geotechnological Problems of Oil and Gas and Chemistry», Azerbaijan State Oil and Industry University, Baku, Azerbaijan

The application of condensate in the synthesis of nano-structured polymer-based composites for enhanced oil recovery


The article considers the influence of a number of external and internal factors, mainly temperature disturbances affecting the change in flow resistance at certain stages of development of oil fields operated for many years. It was found that with a decrease in temperature, the viscosity of oil increases as a result of the formation of asphaltene, resin-paraffin compounds. These associations deposit into the pores, causing a decrease in permeability, a decrease in the inner diameter of the lifting pipes, and an increase in hydraulic resistance. Although the resin was absorbed by the reagent after the nanostructured coordination polymer technique, an increase in oil viscosity was observed. To eliminate the problem, part of the waste of the alkaline diesel fraction included in the composite pumped into the well was replaced by condensate. At the same time, high efficiency was achieved.

Keywords: crude oil; viscosity; paraffin; resin; condensate; associate; nanostructural reagent.

The article considers the influence of a number of external and internal factors, mainly temperature disturbances affecting the change in flow resistance at certain stages of development of oil fields operated for many years. It was found that with a decrease in temperature, the viscosity of oil increases as a result of the formation of asphaltene, resin-paraffin compounds. These associations deposit into the pores, causing a decrease in permeability, a decrease in the inner diameter of the lifting pipes, and an increase in hydraulic resistance. Although the resin was absorbed by the reagent after the nanostructured coordination polymer technique, an increase in oil viscosity was observed. To eliminate the problem, part of the waste of the alkaline diesel fraction included in the composite pumped into the well was replaced by condensate. At the same time, high efficiency was achieved.

Keywords: crude oil; viscosity; paraffin; resin; condensate; associate; nanostructural reagent.

References

  1. Usubaliyev, B. T., Ramazanova, E. E., Murvatov, F. T. (2015). Application of coordination polymers to increase the reservoir oil recovery. Science and Applied Engineering Quarterly, 6, 16-20.
  2. Murvatov, F. T. (2018). The effect of nanostructured reagents on the viscosity of various oils. News of the Azerbaijan Academy of Engineering, 10, 59-62.
  3. Usubaliev, B. T., Ramazanova, E. E., Nurullaev, V. H. (2015). Use of nanostructural coordination units for reduction of viscosity of heavy commodity oil in transportation. Problems of Collection, Preparation and Transportation of Oil and Oil Products, 3, 117-126.
  4. Usubaliev, B. T., Murvatov, F. T., Alieva, F. B. (2016). Application of coordination polymers for the increase of oilbearing strata. News of the Azerbaijan Academy of Engineering, 8, 102-109.
  5. Ramazanova, E. E., Murvatov, F. T., Usubaliyev, B. T. (2018). Study of the effect of nanostructured composite solution on the processes in the wellbore zone. News of Azerbaijan Higher Technical Schools, 20, 25-32.
  6. Usubaliev, B. T., Nurullaev, V. H., Murvatov, F. T. (2019, April). New multifunctional technology based on nanostructural coordination polymers to increase the efficiency of production, transport and oil storage. In: International Scientific-Practical Conference «Status and prospects of exploitation of deposits». Republic of Kazakhstan.
  7. Nurullayev, V. H., Usubaliyev, B. T., Gahramanov, F. S. (2019). Selectivity in improvement of rheological properties of crude oil. American Journal of Applied and Industrial Chemistry, 3, 1-8.
  8. Usubaliev, B. T., Nurullaev, V. H., Murvatov, F. T. (2020). Application of new nanostructured coordination polymers for crushing asphalt-resin-paraffin associations in the volume of oil and petroleum emulsion. Bulletin of the Azerbaijan Academy of Engineering, 12, 47-57.
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DOI: 10.5510/OGP2022SI100648

E-mail: veliehet1973@mail.ru


V. H. Nurullayev, F. T. Murvatov, A. V. Gasimzade

Scientific Research Institute «Geotechnological Problems of Oil and Gas and Chemistry», Azerbaijan State Oil and Industry University, Baku, Azerbaijan

On the issues of perspectives for the development of the Siyazan monoclinal oil field of the Republic of Azerbaijan


The article considers complications associated with abnormal conditions during the development of the Siazan monoclinic oil field. In complex geological, geophysical and operational conditions, the application and continuation in the development of new innovative methods based on the existing system was considered an urgent issue. To solve the problem, new nanostructured composites of class BAF-1 and BAF-2 were created, as well as a method of acting on a bottomhole field. Using the reagent, 391.1 tons of oil were additionally produced from well No. 111 from the South-East Saadan field, from well No. 198 from the South-West Saadan field, and from well No. 1463 operating at the Amirkhanly fields during the operation of the pilot stage. The nanostructured composite BAF-1 and BAF-2 eliminates the stiffness of 3.0% of the produced water, destroys sulfate reducing bacteria.

Keywords: asphaltene; resin; paraffin; nanostructured composite; slaughter area.

The article considers complications associated with abnormal conditions during the development of the Siazan monoclinic oil field. In complex geological, geophysical and operational conditions, the application and continuation in the development of new innovative methods based on the existing system was considered an urgent issue. To solve the problem, new nanostructured composites of class BAF-1 and BAF-2 were created, as well as a method of acting on a bottomhole field. Using the reagent, 391.1 tons of oil were additionally produced from well No. 111 from the South-East Saadan field, from well No. 198 from the South-West Saadan field, and from well No. 1463 operating at the Amirkhanly fields during the operation of the pilot stage. The nanostructured composite BAF-1 and BAF-2 eliminates the stiffness of 3.0% of the produced water, destroys sulfate reducing bacteria.

Keywords: asphaltene; resin; paraffin; nanostructured composite; slaughter area.

References

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  2. Ismayilov, G. G., Alakbarova, A. A., Murvatov, F. T. (2005). Some ecological aspects of opening the additional filter. Journal of Azerbaijan Oil Economy, 5, 58-60.
  3. Ismayilov, G. G., Murvatov, F. T. (2002). Some ecological consequences of irrigation of production wells in Siyazan monoclinic oil field. News of Azerbaijan Higher Technical Schools, 5(21), 72-77.
  4. Ismayilov, G. G., Murvatov, F. T. (2003). Effectiveness of well impact measures and environmental protection (on the example of Siyazan monoclinic oil fields). Azerbaijan Journal of Oil Economy, 2, 56-58.
  5. Murvatov, F. T., Karimova, A. G. (2014). Research of development of layers in monoclinic oil fields with long filters (on the example of Siyazan field). Journal of Azerbaijan Oil Economy, 3, 25-27.
  6. Murvatov, F. T., Usulbaliyev, B. T., Aliyeva, F. B. (2016, December). Results of application of BAF-1 and BAF-2 technology in Siyazan monoclinic oil field. In: Scientific-Practical Conference «Khazarneftegazyatag».
  7. Murvatov, F. T. (2016). Definition of objects depending on the purpose of application of methods of raising the rate of oil well drilling (for example, Siyazan monoclinic). II Bulletin of the Azerbaijan Academy of Engineering, 8, 60-64.
  8. Murvatov, F. T., Mustafaeva, R. E. (2015). Study of effects of nanostructured composite physicochemical indicators of oil. Oil and gas complex: problems and innovations with international participation. Samarsk: State Technical University.
  9. Murvatov, F. T., Mustafaeva, R. E. (2017, October). Research of improvement methods of layers oil recovery using nanostructured coordination polymer composites. In: International Scientific Practical conference (Achievements, problems and prospects for the development of oil and gas industry). Alymetevsk.
  10. Nurullayev, V. H., Usubaliyev, B. T., Taghiyev, D. B. (2019). The study on the reduction of the viscosity of transported heavy crude oil by Fe(II) and Fe(III) complexes with phthalic acid. Iranian Journal of Chemistry and Chemical Engineering, 38(6), 135-140.
  11. Nurullayev, V. H., Usubaliyev, B. T., Gehremanov, F. S. (2019). Selectivity in improvement of rheological properties of crude oil. American Journal of Applied and Industrial Chemistry, 3(1), 1-8.
  12. Nurullayev, V. H., Ismaylov, G. G., Usubaliyev, B. T., Aliyev, S. Y. (2016). Influence of hydrodynamic cavitation on rheological and transportable properties viscous crude oils. International Journal of Petroleum and Petrochemical Engineering, 2(2), 8-16.
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DOI: 10.5510/OGP2022SI100649

E-mail: veliehet1973@mail.ru


S. R. Nurov, R. F. Yakupov, V. V. Mukhametshin, A. T. Gareev, L. S. Kuleshova, I. A. Faizov

Ufa State Petroleum Technological University, Ufa, Russia

Increasing the efficiency management of carbonate oil deposits development in the Kashiro-Podolsk deposits of the Birsk saddle


The article describes a new integrated approach to the analysis and design of carbonate reservoirs of the Kashira-Podolsk deposits development of an oil field confined to the Birskaya saddle. This approach made it possible to obtain results allowing making sound management decisions, as well as optimizing design decisions in the conditions of active involvement of the facility in the development and increasing the oil recovery factor from 0.247 to 0.288 units reserves by the AB1 category. In the future, it is planned to replicate the successful experiences in other fields with a similar geological structure in the north of Bashkortostan.

Keywords: oil fields development; carbonates; Kashir-Podolsk deposits; reserves depletion; acid fracturing; horizontal well.

The article describes a new integrated approach to the analysis and design of carbonate reservoirs of the Kashira-Podolsk deposits development of an oil field confined to the Birskaya saddle. This approach made it possible to obtain results allowing making sound management decisions, as well as optimizing design decisions in the conditions of active involvement of the facility in the development and increasing the oil recovery factor from 0.247 to 0.288 units reserves by the AB1 category. In the future, it is planned to replicate the successful experiences in other fields with a similar geological structure in the north of Bashkortostan.

Keywords: oil fields development; carbonates; Kashir-Podolsk deposits; reserves depletion; acid fracturing; horizontal well.

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DOI: 10.5510/OGP2022SI100650

E-mail: vsh@of.ugntu.ru


L. P. Kalacheva, I. K. Ivanova, A. S. Portnyagin, V. K. Ivanov

Institute of Oil and Gas Problems of the Siberian Branch of the Russian Academy of Sciences,Yakutsk, Russia

Assessment of the possibility of natural and associated petroleum gases storage in the hydrate state


The purpose of this work is to study the natural gas hydrates formation and decomposition processes. Natural gases from the Otradninsky and Srednevilyuisky gas condensate fields were chosen as models of associated petroleum gases. In this paper, the natural gas hydrates formation in water, in a 2% sodium bicarbonate solution was studied and the kinetic parameters of the hydrates decomposition were determined. It has been established that the hydrate formation of natural gas with a higher relative density begins at lower pressures at the same temperature. The degree of water conversion into hydrate increases with a decrease of the gas relative density. Compared to water, the stability of hydrates obtained in sodium bicarbonate solution is almost 2 times higher. The concentration of C2-C4 methane homologues in hydrates leads to an increase of the gas fat coefficient. The conclusion is made about the possibility of the natural and associated petroleum gases utilization and storage in the hydrate state.

Keywords: natural gas; associated petroleum gas; utilization; natural gas hydrates; equilibrium conditions of hydrate formation; bicarbonate-sodium type water; fat coefficient.

The purpose of this work is to study the natural gas hydrates formation and decomposition processes. Natural gases from the Otradninsky and Srednevilyuisky gas condensate fields were chosen as models of associated petroleum gases. In this paper, the natural gas hydrates formation in water, in a 2% sodium bicarbonate solution was studied and the kinetic parameters of the hydrates decomposition were determined. It has been established that the hydrate formation of natural gas with a higher relative density begins at lower pressures at the same temperature. The degree of water conversion into hydrate increases with a decrease of the gas relative density. Compared to water, the stability of hydrates obtained in sodium bicarbonate solution is almost 2 times higher. The concentration of C2-C4 methane homologues in hydrates leads to an increase of the gas fat coefficient. The conclusion is made about the possibility of the natural and associated petroleum gases utilization and storage in the hydrate state.

Keywords: natural gas; associated petroleum gas; utilization; natural gas hydrates; equilibrium conditions of hydrate formation; bicarbonate-sodium type water; fat coefficient.

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DOI: 10.5510/OGP2022SI100664

E-mail: lpko@mail.ru


P. L. Pavlova1, K. A. Bashmur1, V. V. Bukhtoyarov1,2

1Institute of Petroleum and Natural Gas Engineering, Siberian Federal University, Krasnoyarsk, Russia; 2Digital Material Science: New Materials and Technologies, Bauman Moscow State Technical University, Moscow, Russia

Analysis and development of proposals to improve the equipment and technologies of capture and injection of carbon dioxide at the oil fields


This article comprehensive analyzes the techniques and technologies of carbon dioxide capture and injection at an oil field, and also developed proposals for improving the technological process from the beginning of carbon dioxide capture to its injection into the oil reservoir. As a result, the above-ground and underground equipment was analyzed which makes it possible to comprehensively consider the issue of developing oil fields for pumping carbon dioxide in order to increase oil recovery. It is noted that the technological scheme of the field development should include the stage of carbon dioxide capture and processing in order to reduce the cost of its transportation, and by obtaining associated gases, for example hydrogen, to obtain energy for the needs of the field, which is especially important for geographically remote oil fields. The borehole equipment is proposed and the criteria for its operation are justified to control the state of supercritical carbon dioxide at the bottom of the well.

Keywords: carbon dioxide; supercritical fluid; technique; technology; capture; injection; oil field; technological process.

This article comprehensive analyzes the techniques and technologies of carbon dioxide capture and injection at an oil field, and also developed proposals for improving the technological process from the beginning of carbon dioxide capture to its injection into the oil reservoir. As a result, the above-ground and underground equipment was analyzed which makes it possible to comprehensively consider the issue of developing oil fields for pumping carbon dioxide in order to increase oil recovery. It is noted that the technological scheme of the field development should include the stage of carbon dioxide capture and processing in order to reduce the cost of its transportation, and by obtaining associated gases, for example hydrogen, to obtain energy for the needs of the field, which is especially important for geographically remote oil fields. The borehole equipment is proposed and the criteria for its operation are justified to control the state of supercritical carbon dioxide at the bottom of the well.

Keywords: carbon dioxide; supercritical fluid; technique; technology; capture; injection; oil field; technological process.

References

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  4. Shu, L., Wang, K., Liu, Z., et al. (2022). A novel physical model of coal and gas outbursts mechanism: Insights into the process and initiation criterion of outbursts. Fuel, 323, 124305.
  5. Abunowara, M., Elgarni, M. (2013). Carbon dioxide capture from flue gases by solid sorbents. Energy Procedia, 37, 16-24.
  6. Roussanaly, S., Grimstad, A.-A. (2014). The economic value of CO2 for EOR applications. Energy Procedia, 63, 7836-7843.
  7. Pavlova, P. L., Minakov, A. V., Platonov, D. V., et al. (2022). Supercritical fluid application in the oil and Gas Industry: A comprehensive review. Sustainability, 14(2), 698.
  8. Drozdova, T. I., Sukovatikov, R. N. (2017). Environmental risk from emissions of pollutants during the combustion of associated petroleum gas from an oil and gas condensate field. XXI century. Tekhnosfernaya bezopasnost', 3(2), 88-101.
  9. Madejski, P., Chmiel, K., Subramanian, N., Kuś, T. (2022). Methods and techniques for CO2 capture: review of potential solutions and applications in modern energy technologies. Energies, 15(3), 887.
  10. Wang, Y., Zhao, L., Otto, A., et al. (2017). A review of post-combustion CO2 capture technologies from coal-fired power plants. Energy Procedia, 114, 650-665.
  11. Theo, W. L., Lim, J. S., Hashim, H., et al. (2016). Review of pre-combustion capture and Ionic liquid in carbon capture and storage. Applied Energy, 183, 1633-1663.
  12. Yadav, S., Mondal, S. S. (2022). A review on the progress and prospects of oxy-fuel carbon capture and sequestration (CCS) technology. Fuel, 308, 122057.
  13. Custom CO2 capture technology solutions. https://www.carbonclean.com/technology-licence.
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  15. Rizza, C. S. (2014). Experiments and modeling of supercritical CO2 extraction of lipids from microalgae. Master's degree thesis in chemical engineering and industrial processes. Università degli studi di Padova.
  16. Grushevenko, E., Kapitanov, S., Melnikov, I., et al. (2021). Decarbonization in the oil and gas industry: international experience and priorities of Russia. Moscow: The Energy Center of the Moscow School of Management Skolkovo.
  17. Aminu, M. D., Nabavi, S. A., Rochelle, C. A., Manovic, V. (2017). A review of developments in carbon dioxide storage. Applied Energy, 208, 1389-1419.
  18. Zhang, Z., Liu, J., Huo, H., et al. (2021). Prediction for corrosion rate of production tubing for CO2 injection of production well. Petroleum Science and Technology, 40(5), 556-570.
  19. Picha, M. S., Abu Bakar, M. A., Patil, P. A., et al. (2021). Overcoming CO2 injector well design and completion challenges in a carbonate reservoir for world's first offshore carbon capture storage CCS SE Asia project. In: SPE Abu Dhabi International Petroleum Exhibition & Conference (Abu Dhabi, UAE, November 2021).
  20. Gaurina-Međimurec, N., Pašić, B. (2011). Design and mechanical integrity of CO2 injection wells. Rudarskogeološkonaftni Zbornik, 23, 1-8.
  21. Fiberglass tubing. Biysk Fiberglass factory. https://bzs.ru/catalog/truby-nkt-stekloplastikovye.
  22. Xu, L., Xu, X., Yin, C., Qiao, L. (2019). CO2 corrosion behavior of 1% CR–13% CR Steel in relation to CR content changes. Materials Research Express, 6(9), 096512.
  23. Benge, G. (2009). Improving wellbore seal integrity in CO2 injection wells. Energy Procedia. 1(1), 3523-3529.
  24. Krilov, Z., Loncaric, B., Miksa, Z. (2000). Investigation of a long-term cement deterioration under a high-temperature, sour gas downhole environment. In: SPE International Symposium on Formation Damage Control (Lafayette, Louisiana, USA, February 2000).
  25. Ridha, S., Setiawan, R. A., Pramana, A. A., Abdurrahman, M. (2019). Impact of wet supercritical CO2 injection on fly ash geopolymer cement under elevated temperatures for well cement applications. Journal of Petroleum Exploration and Production Technology, 10(2), 243-247.
  26. Bjørge, R., Gawel, K., Chavez Panduro, E. A., Torsæter, M. (2019). Carbonation of silica cement at high-temperature well conditions. International Journal of Greenhouse Gas Control, 82, 261-268.
  27. Zhang, B., Zou, C., Peng, Z., et al. (2020). Study on the preparation and anti-CO2 corrosion performance of soapfree latex for oil well cement. ACS Omega, 5(36), 23028-23038.
  28. Takase, K., Barhate, Y., Hashimoto, H., Lunkad, S. F. (2010). Cement-sheath wellbore integrity for CO2 injection and storage wells. In: SPE Oil and Gas India Conference and Exhibition (Mumbai, India, January 2010).
  29. Vilarrasa, V., Silva, O., Carrera, J., Olivella, S. (2013). Liquid CO2 injection for geological storage in deep saline aquifers. International Journal of Greenhouse Gas Control, 14, 84-96.
  30. Pavlova, P. L., Mikheenkova, E. I. (2021). Analysis of foreign technology and technology of injection of carbon dioxide into the oil and gas reservoir. Review article. Neftegazovoye delo. Setevoye izdaniye, 5, 58-91.
  31. Shayakhmetov, A. I., Malyshev, V. L., Moiseyeva, Ye. F., Ponomarov, A. I. (2021). Estimation of efficiency of oil extraction with supercritical CO2 in a low-permeability reservoir. SOCAR Proceedings, 2, 210-220.
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DOI: 10.5510/OGP2022SI100687

E-mail: bashmur@bk.ru


A. I. Abdullaev, G. N. Rasulov, I. D. Huseynov, O. F. Ismayilov

Azerbaijan Technical University, Baku, Azerbaijan

Innovative reducer for railroad switch drives and evaluation friction work on double sliding bearings


Railway transport plays a special role in the transportation of oil and petroleum products. Ensuring the speed and reliability of transportation is one of the important issues. The role of railroad switch electric drives in solving this problem is great. Package type «AN» reducer have a number of advantages over traditional ones. The article presents the features and the essence of increasing the technological and exploitational parameters of the transmission mechanism of railroad switches with the help of a new innovative package type «AN» reducer, developed at AzTU. An analysis of the work of friction on plain bearings used in package reducers, instead of keyed connections in traditional gearboxes, is given. The effectiveness of the use of package type «AN» reducers in the transmission mechanisms of railroad switch electric drives has been revealed.

Keywords: railroad switch drive; mechanism; innovative; increase; reducer; reliability.

Railway transport plays a special role in the transportation of oil and petroleum products. Ensuring the speed and reliability of transportation is one of the important issues. The role of railroad switch electric drives in solving this problem is great. Package type «AN» reducer have a number of advantages over traditional ones. The article presents the features and the essence of increasing the technological and exploitational parameters of the transmission mechanism of railroad switches with the help of a new innovative package type «AN» reducer, developed at AzTU. An analysis of the work of friction on plain bearings used in package reducers, instead of keyed connections in traditional gearboxes, is given. The effectiveness of the use of package type «AN» reducers in the transmission mechanisms of railroad switch electric drives has been revealed.

Keywords: railroad switch drive; mechanism; innovative; increase; reducer; reliability.

References

  1. Maslennikov, E. V., Gorb, P. E., Serdyuk, T. N., et al. (2013). Railroad switch drives of high-speed railway lines. Electromagnetic Balance and Safety on Rail Transport, 5, 63-82.
  2. Soroko, V. I., Kainov, V. M., Kaziev, G. D. (2006). Automation, telemechanics, communications and computer technology on the railways of Russia. Encyclopedia, Vol. 1. Moscow: NPF «Planet».
  3. Buryak, S. U., Gavrilyuk, V. I., Gololobova, O. A., Beznarytny, A. M. (2014). Automated control systems for transport. Bulletin of Dnipropetrovsk National University of Railway Transport, 4, (52).
  4. Najafov, A. M., Abdullaev, A. I. (2013). On the results of an industrial test of a three-stage two-line package gearbox of a pumping unit SKD 3-1,5-710. Bulletin of NTU «KhPI». Series: Problems of Mechanical Drive, 40, 87-91.
  5. Abdullaev, A. I., Najafov, A. M. (2008). Qualitative assessment of the technical level of the package reducer. Herald of Mechanical Engineering, 12, 6–9.
  6. Abdullaev, A. I., Najafov, A. M. (2012). The three-stage double-flow cylindrical gearbox. Eurasian Patent 017053.
  7. Abdullaev, A. I., Rasulov, G. N. (2022). The design of an innovative transmission mechanism for railway switch drives. Priority directions of innovative activity in the industry. In: Proceedings of The International Scientific Conference, Kazan.
  8. Abdullaev, A. I., Rasulov, G. N., Ismailov, O. F. (2020). Mathematical modeling of the difference in the angles of the direction of the teeth in the engagement zone and the completeness of contact in gears. Scientific and Technical Bulletin of Information Technologies, Mechanics and Optics, 1(1), 110–117.
  9. Drozdov, U. N., Yudin, E. G., Belov, A. I. (2010). Applied tribology (friction, wear, lubrication in technological systems). Moscow: Eco-Press.
  10. Rasulov, G. N. (2020). Analysis of the work of friction on the plain bearing units of package gearboxes of the AN type. In: XXVI International Scientific and Practical Conference «Advances in Science and Technology», Moscow.
  11. (1978). GOST 16162-78. Reducing gear of general purpose. General technical requirements. Moscow: USSR State Committee for Standards.
  12. Najafov, A. M, Hajiyev, A. B., Rasulov, Q. N., Ismayilov, O. F. (2018). Ways to improve the quality of reducers. In: The International Scientific and Technical Conference on «Measurement and quality: problems, prospects», Baku.
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DOI: 10.5510/OGP2022SI100700

E-mail: qoshqarrasul@gmail.com


K. A. Bashmur1, V. V. Bukhtoyarov1,2, R. B. Sergienko3, A. N. Sokolnikov1, Ya. A. Tynchenko1

1Institute of Petroleum and Natural Gas Engineering, Siberian Federal University, Krasnoyarsk, Russia; 2Digital Material Science: New Materials and Technologies, Bauman Moscow State Technical University, Moscow, Russia; 3Gini Gmbh, Munich, Germany

Improving the quality of turbine flowmeters on the basis of the use of a rotor with internal screw relief


This research aims to improve the quality of measurement of fluid flow rates by turbine flowmeters. The quality criteria for a turbine flowmeter include the accuracy of measurement and the cost of its implementation. To compare the criteria, the article presents a hydrodynamic simulation of the movement of the flow of the working medium through the rotors of the flowmeters of the developed and standard types. The developed type of rotor is a hollow shaft with an internal screw relief. A propeller type of rotor was used as standard. Based on the results of the literature analysis, the purpose of the study was reduced to determining the characteristics of hydraulic resistance that affect the linearity of the flow-pressure characteristics of the flowmeter rotor. The tasks of hydrodynamic computer simulation included its implementation for various indicators of the viscosity of the working fluid - from low-viscosity to high-viscosity. It showed that the use of a rotor with an internal screw relief in a flowmeter reduces the hydraulic resistance of the flow by more than 2 times for any viscosity of the working medium compared to a propeller-type rotor, which significantly reduces the energy costs for moving the flow. At the same time, the linearity of characteristics for both types of flowmeter rotors remains approximately the same in the studied range of characteristics, which indicates a similar accuracy of parameter measurements.

Keywords: turbine flowmeter; viscosity; hydraulic resistance; oil transportation; computational fluid dynamics; CFD.

This research aims to improve the quality of measurement of fluid flow rates by turbine flowmeters. The quality criteria for a turbine flowmeter include the accuracy of measurement and the cost of its implementation. To compare the criteria, the article presents a hydrodynamic simulation of the movement of the flow of the working medium through the rotors of the flowmeters of the developed and standard types. The developed type of rotor is a hollow shaft with an internal screw relief. A propeller type of rotor was used as standard. Based on the results of the literature analysis, the purpose of the study was reduced to determining the characteristics of hydraulic resistance that affect the linearity of the flow-pressure characteristics of the flowmeter rotor. The tasks of hydrodynamic computer simulation included its implementation for various indicators of the viscosity of the working fluid - from low-viscosity to high-viscosity. It showed that the use of a rotor with an internal screw relief in a flowmeter reduces the hydraulic resistance of the flow by more than 2 times for any viscosity of the working medium compared to a propeller-type rotor, which significantly reduces the energy costs for moving the flow. At the same time, the linearity of characteristics for both types of flowmeter rotors remains approximately the same in the studied range of characteristics, which indicates a similar accuracy of parameter measurements.

Keywords: turbine flowmeter; viscosity; hydraulic resistance; oil transportation; computational fluid dynamics; CFD.

References

  1. Džemić, Z., Širok, B., Bizjan, B. (2017). Turbine flowmeter response to transitional flow regimes. Flow Measurement and Instrumentation, 59, 18-22.
  2. Kremlevskyi, P. P. (2004). Flowmeters and counters of the amount of substance. Saint Petersburg: Polytechnic.
  3. Liu, S., Ding, F., Ding, C. (2014). A rotor speed sensor of cycloid rotor flowmeter. Advanced Materials Research, 1449-1452.
  4. Saboohi, Z., Sorkhkhah, S., Shakeri, H. (2015). Developing a model for prediction of helical turbine flowmeter performance using CFD. Flow Measurement and Instrumentation, 42, 47-57.
  5. Lee, W., Karlby, H. (1960). A study of viscosity effect and its compensation on turbine-type flowmeters. Journal of Basic Engineering, 82, 717-725.
  6. Ellison, B. A. (1983). Turbine meters for liquid measurement. Mechanical engineering, 52-56.
  7. Guo, S., Sun, L., Zhang, T., et al. (2013). Analysis of viscosity effect on turbine flowmeter performance based on experiments and CFD simulations. Flow Measurement and Instrumentation, 34, 42-52.
  8. Zhen, W., Tao, Z. (2008). Computation study of tangential type turbine flowmeter. Flow Measurement and Instrumentation, 19, 233-239.
  9. Wang, B., Du, Y., Xu, N. (2019). Simulation and experimental verification on dynamic calibration of fuel gear flowmeters. Measurement, 138, 570-577.
  10. Bashmur, K. A., Petrovsky, E. A., Bukhtoyarov, V. V., et al. (2021). The effect of a hydrocyclone-damper with a surface relief on the separation ability of fluid heterogeneous systems. SOCAR Proceedings, 2, 13-20.
  11. Bashta, Т. М., Rydnev, С. С., Nekrasov, B. B., et al. (2010). Hydraulics, hydraulic machines and hydraulic drives. Moscow: Alliance.
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DOI: 10.5510/OGP2022SI100686

E-mail: bashmur@bk.ru


I. A. Habibov, S. M. Abasova, I. A. Mayilov

1Azerbaijan State Oil and Industry University, Baku, Azerbaijan; 2Azerbaijan Technical University, Baku, Azerbaijan

The effectiveness of the use of nanotechnology in increasing the resource of oilfield equipment


The current stage of development of science and technology is characterized by the level of application of nanotechnology. The scope of application of this technology in industry is increasing every day. For the first time in Azerbaijan, nanotechnology has been applied in the oil sector and has had a serious impact on the level of oil and gas production. The republic has adopted three Nanoneft programs covering 2010-2015, 2016-2020 and 2021-2025. These programs have become a great incentive for the development of this field of science. Currently, nanotechnologies are successfully applied in such areas as oil production, well drilling, petrochemistry, ecology, geology, and petroleum engineering. The article considers the possibility of using nanotechnology in the designs of oil and gas field equipment in order to increase their reliability and durability.

Keywords: equipment for oil and gas fields; nanotechnology; reliability.

The current stage of development of science and technology is characterized by the level of application of nanotechnology. The scope of application of this technology in industry is increasing every day. For the first time in Azerbaijan, nanotechnology has been applied in the oil sector and has had a serious impact on the level of oil and gas production. The republic has adopted three Nanoneft programs covering 2010-2015, 2016-2020 and 2021-2025. These programs have become a great incentive for the development of this field of science. Currently, nanotechnologies are successfully applied in such areas as oil production, well drilling, petrochemistry, ecology, geology, and petroleum engineering. The article considers the possibility of using nanotechnology in the designs of oil and gas field equipment in order to increase their reliability and durability.

Keywords: equipment for oil and gas fields; nanotechnology; reliability.

References

  1. Yusifzade, H. B., Shakhbazov, E. K. (2011). Development and implementation of nanotechnologies in oil and gas production. Baku: SOCAR Printing House.
  2. Patrushev, V. S., Antsiferova, I. V. (2017). The use of nanotechnology in the oil industry. International Research Journal, 7(61), 144-148.
  3. Khavkin, A. Ya. (2014, November). Energy efficiency of oil and gas nanotechnologies. In: Proceedings of the IV International Conference in Moscow «Nanoalloy in the development of hydrocarbon deposits from nanomineralogy and nanochemistry to nanotechnology». Moscow: Oil and Gas.
  4. Shahbazov, E. K., Kyazymov, E. A. (2010). Nanotekhnologii dlya upravleniya svojstvami tribotekhniki bureniya skvazhin nefti i gaza. Azerbajdzhanskoe Neftyanoe Hozyajstvo, 8, 32-37.
  5. Shahbazov, E. K., Dyshin, O. A., Aliev, G. (2011). Nauchnye osnovy sistemy «NANOPAV» dlya bureniya i dobychi nefti i gaza.
  6. Spiridonov, Yu. A., Hramov, R. A., Bokserman, A. A., i dr. (2006). Koncepciya programmy preodoleniya padeniya nefteotdachi. Moskva: OAO «Zarubezhneft’».
  7. Havkin, A. Ya. (2010). Nanoyavleniya i nanotekhnologii v dobyche nefti i gaza /pod red. Safaralieva, G. K. Moskva: NIKI.
  8. Habibov, I. A., Shamilov, V. M., Guseynova, V. Sh. (2018). Sovremennoe sostoyanie i perspektivy primeneniya nanotekhnologij v povyshenii ekspluatacionnyh pokazatelej neftegazopromyslovogo oborudovaniya. Azerbajadzhanskoe Neftyanoe Hozyajstvo, 2, 32-36.
  9. Habibov, I. A., Shamilov, V. M., Kerimov, M. A. (2019). Povyshenie resursa rez’bovyh elementov flancevyh soedinenij elektropogruzhnyh ustanovok. Azerbajdzhanskoe Neftyanoe Hozyajstvo, 1, 71-75.
  10. Kozlov, G. V., Belousov, V. N., Sanditov, D. S., i dr. (1994). Sootnosheniye mejdu koefficientom Puassona i strukturoy dlya amorfnogo poliarilatsulfanova. Izvestiya Vuzov. Severo-Kavkazskii Region. Natural Science, 1-2(86), 52-57.
  11. Magerramov, A. M., Ramazanov, M. A., Gadzhieva, F. V. (2013). Issledovanie struktury i dielektricheskih svojstv nanokompozitov na osnove polipropilena i nanochastic dioksida. Elektronnaya Obrabotka Materialov, 49(5), 1-5.
  12. Babayev, S. G., Kershenbaum, V. Ya., Habibov, A. I. (2018). Evolution of the quality of the friction units of oil and gas equipment. Moscow: NING.
  13. Habibov, I. A., Shamilov, V. M., Gadzhiev, E. G., Rustamova, K. B. (2020). Results of the development and application of nanostructured ceramic fittings. Azerbaijan Oil Industry, 8, 34-38.
  14. Habibov, I. A., Iravanly, K. B. (2021). Development of bitumen-polymer coatings to protect oil and gas pipelines from corrosion. Azerbaijan Journal of Chemical News, №1, Vol. 1, p. 30-35.
  15. Latifov, Y. A., Habibov, I. A., Valiyev, N. A., et al. (2018). Composition for ceramic nozzles. Patent Azerbaijan Republic № a 2018 0095.
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DOI: 10.5510/OGP2022SI100692

E-mail: h.ibo@mail.ru


S. N. Namazov, Sh. M. Mashayev, A. M. Guliyeva

Azerbaijan Technical University, Baku, Azerbaijan

Influence of high-speed sintering on the structure and properties of powder steels


As the technology of sintering steels is carried out at different temperatures and conditions, the for-mation of their structure and properties are somewhat different. Proper sintering technology allows the pro-duction of highdensity and high-strength powder steels. In most cases, the reason for the decrease in the pro-perties of powder steels is that the diffusion process, which occurs as a result of low sintering temperatures and low sintering times, is weak or non-existent. As we know, density and many physical and mechanical properties of the product increase as the pores close by dif-fusion during sintering. Proper welding technolo-gy allows the production of high-density and high-strength powder steels.

Keywords: sintering; technology; powder; steel; structure; properties; oil; gas; industry.

As the technology of sintering steels is carried out at different temperatures and conditions, the for-mation of their structure and properties are somewhat different. Proper sintering technology allows the pro-duction of highdensity and high-strength powder steels. In most cases, the reason for the decrease in the pro-perties of powder steels is that the diffusion process, which occurs as a result of low sintering temperatures and low sintering times, is weak or non-existent. As we know, density and many physical and mechanical properties of the product increase as the pores close by dif-fusion during sintering. Proper welding technolo-gy allows the production of high-density and high-strength powder steels.

Keywords: sintering; technology; powder; steel; structure; properties; oil; gas; industry.

References

  1. Namazov, S. N., Rzayev, E. D., Dzuivishov, V. F. (2013). Technology of lazer cladding of powder mixtures on steel substrate and tribtexnical characteritation of obtained materials. Applied Mechanics and Materials, 379, 145-148.
  2. Namazov, S. N., Hasanli, R. K. (2017). microcapillary features in silicon alloyed high-strength cast iron. Mechanics, Materials Science & Engineering Journal, 11, 7-10.
  3. Nygren, M., Shen, Z. (2004). Novel assemblies via spark plasma sintering. Silicon India Special, 69, 211-218.
  4. Zhang, F. (2013). Spark plasma sintern von nanomaterialien und biomaterialien. Erlangung des akademischen Grades Dr.-Ing. Habil. Fakultät für Maschinenbau und Schiffstechnik und Mathematisch-Naturwissenschaftliche Fakultät der Universität Rostock.
  5. Echeberria, J., Martinez, V., Sanchez, J. M., et al. (2005). Sintering behaviour of low Co content cBNWC/Co composites by Either GEHIP or FAST. In: 16th International Plansee Seminar, 2(HM23), 434–448.
  6. Alvarez, M., Sanchez, J. M. Densification of nanocrystalline Ti(C,N) powders with nickel aluminide binder phases using field assisted sintering (FAST). Submitted for publication to Journal of the American Ceramic Society.
  7. Kessel, H. U., Hennicke, J., Schmidt, J., et al. (2006). Feldaktiviertes sintern „FAST“–ein neues Verfahren zur Herstellung metallischer und keramischer Sinterwerkstoffe. Tagungsband 25. Pulvermetallurgisches Symposium, Hagen.
  8. Hennicke, J., Kessel, H. U. (2004). Field assisted sintering technology („FAST“) for the consolidation of innovative materials. Ceramic Forum International, 81(11), E14-E16.
  9. Van-Meensel, K., Kandukuri, S. Y., Hennicke, J., et al. (2004, September). Spark plasma sintering of nanometer size ZrO2-Al2O3-TiC0.5N0,5 composites. In: EMRS 2004, Poland.
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DOI: 10.5510/OGP2022SI100693

E-mail: subhan_namazov@daad-alumni.de


N. M. Rasulov, G. V. Damirova, I. A. Abbasova, Y. E. Huseynov

Azerbaijan Technical University, Baku, Azerbaijan

Improving the efficiency of thread rolling with management of technological connections


The formation of threads by plastic deformation is one of the most effective ways of forming threads, which determines their high performance characteristics; Increasing the accuracy of thread manufacturing is especially important for organizing an effective process of automating the assembly of threaded connections. The article analyzes the mechanism of thread accuracy formation during thread rolling with radial feed on two-roll roll forming machines and with the help of tangential thread rolling heads with tangential feed. Connections between input and output parameters are revealed, a new method of thread rolling with tangential feed is presented, which practically without reducing the productivity of the technological operation (feed) determine the direction of reducing the knurling force, as also proposed ways to improve the accuracy of rolled threads.

Keywords: thread; rolling; radial; tangential; feed; accuracy of parameters; technological connections.

The formation of threads by plastic deformation is one of the most effective ways of forming threads, which determines their high performance characteristics; Increasing the accuracy of thread manufacturing is especially important for organizing an effective process of automating the assembly of threaded connections. The article analyzes the mechanism of thread accuracy formation during thread rolling with radial feed on two-roll roll forming machines and with the help of tangential thread rolling heads with tangential feed. Connections between input and output parameters are revealed, a new method of thread rolling with tangential feed is presented, which practically without reducing the productivity of the technological operation (feed) determine the direction of reducing the knurling force, as also proposed ways to improve the accuracy of rolled threads.

Keywords: thread; rolling; radial; tangential; feed; accuracy of parameters; technological connections.

References

  1. Afonin, A. N. (2010). Povyshеnie effektivnosti nakatyvaniia rezb. Avtoreferat dissertasii na soiskaniye uchenoy stepeni doktora texnicheskix nauk. Oryel.
  2. Kirichek, A. V., Afonin, A. N. (2009). Rez’bonakatyvanie: Biblioteka tekhnoloqa. Мoskva: Мaschinostroenie.
  3. Lapin, V. V., Pisarevskii, М. I., Saмsonov, V. V. i dr. (1986). Nakatyvanie rezb, cherviiakov, shlitsev i zubev. Leningrad: Мashinostroenie.
  4. Rasulov, N. M. (2013). Upravleniye katchestvom izdeliya v protchesse eqo izqotovleniya. Vestnik Мaschinostroeniya, 2, 83-86.
  5. (2013). Spravochnik tekhnoloqa мashinostroitelya / pod red. Dalskoqo, A. М., Kosilovoii, A. Q., Мeshcheriiakova, R. K., i dr. T. 1. Мoskva: Мashinostroenie.
  6. Rasulov, N. M. (2001). Texnoloqicheskiye razmernie svyazi pri nakativani rezbi. Maschinostroitel, 8, 12-16.
  7. Rasulov, N. М., Damirova, Q. V. (2017). Opredeleniye diametra sterjney pod nakativanie rezbi s primeneniyem veroyatnosno-statistitcheskoqo metoda. Mekanika ta Maschinobuduvannya, 1, 267-273.
  8. Rasulov, N. М., Damirova, Q. V. (2016). Yivdiyirlamada silindrik thubuqlarin diametrlarinin tayini. Мashinshunasliq, 1, 71-75 .
  9. Rasulov, N. M., Damirova, G. V. (2016). Yiv və profillerin diyirlenmesi uchun ozusazlanan qurqu. Azerbayjan Patenti İ 2016 0053.
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DOI: 10.5510/OGP2022SI100694

E-mail: mail.az77@mail.ru


A. H. Sofiyev1,5, F. Kadioglu2, I. A. Khalilov3, H. M. Sedighi4, T. Vergul2,6, R. Yenialp1

1Suleyman Demirel University, Isparta; 2Istanbul Technical University, Istanbul, Turkey; 3ATU, Baku, Azerbaijan; 4Shahid Chamran University of Ahvaz, Ahvaz, Iran; 5UNEC, Baku, Azerbaijan; 6Istanbul Ticaret University, Istanbul, Turkey

On the torsional buckling moment of cylindrical shells consisting of functionally graded materials resting on the Pasternak-type soil


In this study, the buckling analysis of cylindrical shells made of functionally graded materials (FGMs) under the torsional moment resting on the Pasternak-type soil is performed. After establishing the linear constitutive relations of FGM cylindrical shells within the framework of the modified Donnell type shell theory, the governing equations of FGM cylindrical shells under the torsional moment are derived considering the influence of Pasternak-type soil. Analytical formula for the torsional moment is obtained by choosing the approximation functions that satisfies the boundary conditions in an integral sense. From the obtained formula, the formulas for the critical torsional moment in the presence of Winkler soil and absence of soils are obtained as a special case. Variations of critical torsional moment for different soil coefficients, volume fraction ratio and shell characteristics are investigated in detail.

Keywords: functionally graded materials; cylindrical shell; buckling; critical torsional moment; Pasternak-type soil.

In this study, the buckling analysis of cylindrical shells made of functionally graded materials (FGMs) under the torsional moment resting on the Pasternak-type soil is performed. After establishing the linear constitutive relations of FGM cylindrical shells within the framework of the modified Donnell type shell theory, the governing equations of FGM cylindrical shells under the torsional moment are derived considering the influence of Pasternak-type soil. Analytical formula for the torsional moment is obtained by choosing the approximation functions that satisfies the boundary conditions in an integral sense. From the obtained formula, the formulas for the critical torsional moment in the presence of Winkler soil and absence of soils are obtained as a special case. Variations of critical torsional moment for different soil coefficients, volume fraction ratio and shell characteristics are investigated in detail.

Keywords: functionally graded materials; cylindrical shell; buckling; critical torsional moment; Pasternak-type soil.

References

  1. Koizumi, M. (1993). The concept of FGM. Ceramic Transactions, Functionally Gradient Materials, 34, 3–10. 
  2. Lannutti, J.  (1994).  Functionally graded materials: properties, potential and design guidelines. Composites Engineering, 4, 81-94.
  3. Leushake, U., Krell, T., Schulz, U.  (1997).  Graded thermal barrier coating systems for gas turbine applications. Materialwissenschaften und Werkstofftechnik, 28, 391-394.
  4. Zoltan, K., Bela, V.  (2012).  Processing of functionally graded aluminium alloys. Metalurgia International, 17, 22-26.
  5. Torres, Y., Trueba, P., Pavon Palacio, J., et al. (2016). Design, processing and characterization of titanium with radial graded porosity for bone implants. Materials & Design, 110, 179-187.
  6. Pelz, J., Ku, N., Shoulders, W., et al. (2020).  Multi-material additive manufacturing of functionally graded carbide ceramics via active, in-line mixing. Additive Manufacturing, 37, 101647.
  7. Suethao, S., Shah, D., Smitthipong, W.  (2020). Recent progress in processing functionally graded polymer foams. Materials, 13, 4060.
  8. Lee, N., Weber, R., Kennedy, J., et al. (2020). Sequential multimaterial additive manufacturing of functionally graded biopolymer composites. 3D Printing and Additive Manufacturing, 7, 205-215.
  9. Vasavi, B., Raghavendra, D. G., Ojha, S., et al. (2021).  State of the art in functionally graded materials. Composite Structures, 262, 113596.
  10. Madan, R., Bhowmick, S.  (2020).  A review on application of FGM fabricated using solid-state processes. Advances in Materials and Processing Technologies, 6, 608-619.
  11. Sofiyev, A. H., Schnack, E.  (2004).  The stability of functionally graded cylindrical shells under linearly increasing dynamic torsional loading. Engineering Structures, 26, 1321-1331.
  12. Huang, H. W., Han, Q. (2010). Nonlinear buckling of torsion–loaded functionally graded cylindrical shells in thermal environment. European Journal Mechanics A-Solids, 29, 42–48.
  13. Sun, J., Xu, X., Lim, C. W.  (2013). Torsional buckling of functionally graded cylindrical shells with temperature-dependent properties. International Journal of Structural Stability and Dynamics, 14, 1350048.
  14. Shen, H.-S.  (2014). Torsional postbuckling of nanotube-reinforced composite cylindrical shells in thermal environments. Composite Structures, 116, 477–488.
  15. Sofiyev, A. H., (2019). Review of research on the vibration and buckling of the FGM conical shells. Composite Structures, 211, 301-317.
  16. Sun, J., Ni, Y., Hanyu, G., et al. (2019).  Torsional buckling of functionally graded multilayer graphene nanoplatelet-reinforced cylindrical shells. International Journal of Structural Stability and Dynamics, 20, 2050005.
  17. Soltani, M., Asgarian, B.  (2020). Lateral-torsional stability analysis of a simply supported axially functionally graded beam with a tapered i-section. Mechanics of Composite Materials, 56, 39-54.
  18. Shen, H. S. (2009). Functionally graded materials, nonlinear analysis of plates and shells. Florida: CRC Press.
  19. Pasternak, P. L. (1954). On a new method of analysis of an elastic foundation by means of two foundation constants. Moscow: State Publishing House Building and Architecture Literature.
  20. Kerr, A. D. (1964). Elastic and visco-elastic foundation models. Journal of Applied Mechanics, 31, 491–498.
  21. Vlasov, V. Z., Leont’ev, N. N. (1966). Beams, plates and shells on elastic foundations. Translated from Russian to Enghlish by Barouch, A, Israel Program for scientific translations, Jarusalem.
  22. Bajenov, V. A., (1975). The bending of the cylindrical shells in an elastic medium. Kiev: Visha Shkola.
  23. Dung, D., Hoa, L.  (2015). A semi-analytical approach to analyze the nonlinear dynamic torsional buckling of stiffened FGM circular cylindrical shells surrounded by elastic medium. Applied Mathematical Modelling, 39, 6951-6967.
  24. Dung, D., Hoa, L. (2015). Nonlinear torsional buckling and postbuckling of eccentrically stiffened FGM cylindrical shells in thermal environment. Composites Part B: Engineering, 69, 378-388.
  25. Ninh, D., Bich, D., Bui, H.  (2015). Torsional buckling and post-buckling behavior of eccentrically stiffened functionally graded toroidal shell segments surrounded by an elastic medium. Acta Mechanica, 226, 3501-3519.
  26. Ninh, D., Bich, D. (2016). Nonlinear torsional buckling and post-buckling of eccentrically stiffened ceramic functionally graded material metal layer cylindrical shell surrounded by elastic foundation subjected to thermo-mechanical load. Journal of Sandwich Structures and Materials, 18, 712-738.
  27. Nam, V., Phuong, N., Minh, K., Hiếu, P.  (2018). Nonlinear thermo-mechanical buckling and post-buckling of multilayer FGM cylindrical shell reinforced by spiral stiffeners surrounded by elastic foundation subjected to torsional loads. European Journal of Mechanics A/Solids, 72, 393-406.
  28. Sofıyev, A. H., Yenialp, R. (2021, December). Analysis of the elastic foundation effect on buckling of functionally graded cylindrical shells under torsional load. Proceeding of International scientific-practical conference «Machine-building and energy: new concepts and technologies». Baku, Azerbaijan: Azerbaijan Technical University.
  29. Sofiyev, A. H., Kuruoglu, N. (2022). Buckling analysis of shear deformable composite conical shells reinforced by CNTs subjected to combined loading on the two-parameter elastic foundation. Defence Technology, 18(2), 205-218.
  30. Volmir, A. S., (1967). The stability of deformable systems. Moscow: Nauka.
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DOI: 10.5510/OGP2022SI100695

E-mail: abdullahavey@sdu.edu.tr


I. T. Abbasov1, S. Simon1, P. D. Fritzsche1, N. D. Yusubov2

1Brandenburg University of Technology Cottbus-Senftenberg, Cottbus-Senftenberg, Germany; 2Azerbaijan Technical University, Baku, Azerbaijan

Study on reducing energy consumption in rough turning operations


Optimizing energy consumption is one of the key issues in the engineering industry, as in other advanced manufacturing industries. Models for cutting parameters, material extraction and other influencing parameters have been developed until now. Most of these models are subject to one principle. The higher the rate of material extraction, the lower the specific energy consumption. In this article, a number of tasks have been implemented to increase energy efficiency. First, the cutting speed, feed rate, cut of depth are investigated to optimize energy in the machining process. Then the processing is carried out with dry, coolant lubricants and idle machining, and the optimal cutting parameters are selected. These processes are carried out during rough turning. In addition, the energy effects of coolants and lubricants have been studied. For this purpose, heat capacities and dynamic viscosity studies of coolant lubricants were conducted.

Keywords: turning; surface roughness; energy efficiency; cutting parameter; coolant lubricants; heat capacity; dynamic viscosity.

Optimizing energy consumption is one of the key issues in the engineering industry, as in other advanced manufacturing industries. Models for cutting parameters, material extraction and other influencing parameters have been developed until now. Most of these models are subject to one principle. The higher the rate of material extraction, the lower the specific energy consumption. In this article, a number of tasks have been implemented to increase energy efficiency. First, the cutting speed, feed rate, cut of depth are investigated to optimize energy in the machining process. Then the processing is carried out with dry, coolant lubricants and idle machining, and the optimal cutting parameters are selected. These processes are carried out during rough turning. In addition, the energy effects of coolants and lubricants have been studied. For this purpose, heat capacities and dynamic viscosity studies of coolant lubricants were conducted.

Keywords: turning; surface roughness; energy efficiency; cutting parameter; coolant lubricants; heat capacity; dynamic viscosity.

References

  1. Rechtvorschriften Ausgabe in deutscher Sprache: Richtlinie 2010/30/EU des Europaeischen Parlamentes und des Rates vom 19. Mai 2010 über die Angabe des Verbrauchs an Energie und anderen Ressourcen durch energieverbrauchsrelevante Produkte mittels einheitlicher Etiketten und Produktinformationen. 2010. 53. Jahrgang, L153, 18. Hrsg. Von Europaeische Union. Amtsblatt der Europaeischen Union, 1-11.
  2. BMWFW- Energieeffizienz in Zahlen 2015. Bundesministerium für Wissenschaft Forschung und Wirtschaft.
  3. Rechtvorschriften Ausgabe in deutscher Sprache: Richtlinie 2012/27/EU des Europaeischen Parlamentes und des Rates vom 25.Oktober 2012. 55.Jahrgang, L315, 1-109.
  4. DIN 8580 2003. Fertigungsverfahren, Begriffe, Einteilung. Hrsg von Deutsches Institut für Normung Beuth Verlag Berlin, 1-13.
  5. Erlach K. 2013. Energiewertstrom: Steigerung der Energieeffizienz in der Produktion. In, «Handbuch Ressourcenorientierte Produktion» Hrsg. Von R Neugebauer. Carl Hanser Verlag München Wien, 1-63.
  6. Christoph H., Sebastian T., Andre Z., Steffen I., Peter B., 2009. Energy efficiency of machine tools: extending the perspective. In: Proceedings of the 42nd CIRP international conference on manufacturing systems, Grenoble, France, 1-6.
  7. Konstantinos S., Peter B., 2013. Energy efficient manufacturing from machine tools to manufacturing systems. In: Forty sixth CIRP Conference of manufacturing systems, 634-639.
  8. Holkub T., Vyroubal T., Smolik J., 2013. Improving energy efficiency of machine tools. In: 11th global conference on sustainable manufacturing, 125-130.
  9. Energy Value Stream: Increasing Energy Efficiency in Production in «Future Trends in Production Engineering». Hrsg. Von G. Schuh, R. Neugebauer und E. Uhlmann. Springer Verlag Berlin Heidelberg, 396.
  10. Dedalus Consulting 2011. Cutting Tools. World Markets, End-Users, and Competitors: 2010-2015 Analysis and Forecast, Dedalus Consulting International New York, 6-9.
  11. Garant Handbuch, 2020. Zerspanen, Art.-Nr. 110950 DE, 606-607.
  12. S.Simon., I.T. Abbasov., P.Fritzsche., 2021. Influence of optimisation of cutting parameters and tools in turning roughing on surface roughness and energy efficiency. «Machine-building and Energy: New Concepts and Technologies» international Scientific-practical Conference, 2-3 December, Azerbaijan Technical University, Baku, 12-14.
  13. S.F. Amirli., P.Fritzsche., I.T. Abbasov., S. Wichmann., et al., 2022. The impact of high speed mechanical processing efficiency on the production process. «Herald of the Azerbaijan Engineering Academy». Vol 14., no. 1, pp. 41-51.
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DOI: 10.5510/OGP2022SI100696

E-mail: Ilgar.Abbasov@b-tu.de


N. M. Rasulov, U. M. Nadirov, M. Z. Alakbarov

Azerbaijan Technical University, Baku, Azerbaijan

Improving the efficiency of grinding teeth by copying with the control of dynamic technological connections


The conception of dynamic technological connections during machining is developed. Dynamic technological connections are presented that act during the formation of surfaces and indicators of the production quality of the product and its components during machining. Managing of relationships are sources of improving the quality of manufacturing parts. Some output technological parameters that form the quality of parts during machining are investigated, and factors influencing them. The mechanism and pattern of changes in the actual depth of cut during grinding of teeths by copying were identified. The method was determined to ensure its stability with by control of dynamic technological connections. Achieved improved quality of grinding teeth and processing performance when grinding teeth with copying compared with the traditional method.

Keywords: dynamic; technological connections; grinding; control; depth of cut; quality.

The conception of dynamic technological connections during machining is developed. Dynamic technological connections are presented that act during the formation of surfaces and indicators of the production quality of the product and its components during machining. Managing of relationships are sources of improving the quality of manufacturing parts. Some output technological parameters that form the quality of parts during machining are investigated, and factors influencing them. The mechanism and pattern of changes in the actual depth of cut during grinding of teeths by copying were identified. The method was determined to ensure its stability with by control of dynamic technological connections. Achieved improved quality of grinding teeth and processing performance when grinding teeth with copying compared with the traditional method.

Keywords: dynamic; technological connections; grinding; control; depth of cut; quality.

References

  1. Druzhinskiy, I. A., (1985). Complex surfaces: Mathematical description and technological support. Leningrad:
    Mashinostroenie.
  2. Makarov, V. F., Nikitin, S. P, Norin, A. O. (2016). Povysheniye kachestva i proizvoditel'nosti pri profil'nom glubinnom shlifovanii turbinnykh lopatok. Naukoyomkiye Tekhnologii v Mashinostroyenii, 5, 17-24.
  3. (2003). Spravochnik tekhnologa mashinostroitelya. T. 1 / pod red. A. M. Dal'skogo, A. G. Kosilovoy, R. K. Meshcheryakova i dr. Moskva: Mashinostroyeniye.
  4. Black, J. T., Kohser, R. A. (2019). DeGarmo's, Materials and Processes in Manufacturing. John Wiley & Sons.
  5. Bazrov, B. M. (2005). Osnovy tekhnologii mashinostroyeniya. Moskva: Mashinostroyeniye.
  6. Klocke, F., König, W. (2005). Fertigungsverfahren: Schleifen, Honen, Läppen. 4. Neu bearbeitete Aufgabe. Berlin Heidelberg: Springer-Verlag.
  7. Rasulov, N. M., Alekberov, M. Z., Nadirov, U. M. (2021). Povysheniye effektivnosti shlifovaniya fasonnykh poverkhnostey s kopirovaniyem. Vestnik Mashinostroyeniya, 6, 48-52.
  8. Lischenko, N. V., Larshyn, V. P., Nezhebovskiy, V. V. (2018). Studying of the quality of the surface layer of gears with profile grinding. Cutting and Tool in Technological Systems, 89(101), 88–99.
  9. Rasulov, N. M., (2013). Upravleniye kachestvom izdeliye v protsesse yego izgotovleniya. Vestnik Mashinostroyeniya, 2, 83–86.
  10. Rasulov, N. M., Nadirov, U. M., (2019). Podkhod k otsenke kachestv izgotovleniya detaley v priborostroyenii, Nauchno-Tekhnicheskiy Vestnik Informatsionnykh Tekhnologiy, Mekhaniki i Optiki, 4(19), 747–755.
  11. Kremen', Z. I., Yur'yev, V. G., Baboshkin, A. F., (2007). Tekhnologiya shlifovaniya v ashinostroyenii. Sankt-Peterburg: Politekhnika.
  12. (2007). Tekhnologiya proizvodstva i metody povysheniya kachestva zubchatykh koles i peredach / pod red. V. Ye. Starzhinskogo i M. M. Kane. Sankt-Peterburg: Professiya.
  13. Rasulov, N. M., Shabiyev, E. T., (2017). Povysheniye effektivnosti shlifovaniya zub'yev zubchatykh koles metodom kopirovaniya na osnove upravleniye glubinu rezaniya. Izvestiya VUZ-ov. Mashinostroyeniye, MGTU imeni N. Ye. Baumana, 2, 71-78.
  14. Rasulov, N. M., Alekberov M. Z., (2020). Silindrik dishli charxlarin dishlerinin pardaqlanmasi uchun emal payinin teshkiledicilerinin riyazi modelleri. Maşınşünaslıq, 9(1), 47-52.
  15. Rasulov, N. M., Nadirov, U. M, Alekberov, M. Z. (2020) Obobshchennaya sistema tekhnologicheskikh svyazey pri mekhanicheskoy obrabotke i yeye primeneniye. Vestnik Mashinostroyeniya, 7, 38-41.
  16. Lauro, C. H., Brandão, L. C., Ribeiro Filho, S. L. M., Davim, J. P. (2008). Quality in the machining: characteristics and techniques to obtain good results, in manufacturing engineering: New research. New York: Nova.
  17. Nadirov, U. M., Rasulov, N. M., (2019). Analysis and mathematical model of the circumferential accuracy of the groove cut on the surface of rotation. Journal of the Brazilian Society of Mechanical Sciences and Engineering, 9(41), 481–492.
  18. Vorontsov, A. L., Sultan-Zade, N. M., Albagachiev, A. Yu., Savkin, A. I. (2011). Development of a new theory of thermal cutting processes 21. Determining optimal cutting conditions to extend tool life. Russian Engineering Research, 9(31), 877–879.
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DOI: 10.5510/OGP2022SI100697

E-mail: ugurlu.nadirov@aztu.edu.az


R. Schneider1, T. Fritsch1, Th.Rieder2, S. Hernschier1, S.Simon1, A.S. Mammadov3

1Brandenburg University of Technology Cottbus-Senftenberg, Brandenburg, Germany; 2Institute for Environmental Technology and Recycling Senftenberg, Senftenberg, Germany; 3Azerbaijan Technical University, Baku, Azerbaijan

Method for condition-based maintenance based on sound measurements using the example of selected belt conveyor systems


The article describes a method for condition-based maintenance, which is based on the evaluation of acoustic characteristics of a plant. Starting from the general requirements and objectives for maintenance, the measurement procedure is explained. Subsequently, the feasibility of the method is demonstrated and its limitations are shown by means of two test sections. A brief economic consideration shows the economic advantage in addition to the increased reliability of the plants.

Keywords: condition-based maintenance; acoustic model; belt conveyor; open cast mining.

The article describes a method for condition-based maintenance, which is based on the evaluation of acoustic characteristics of a plant. Starting from the general requirements and objectives for maintenance, the measurement procedure is explained. Subsequently, the feasibility of the method is demonstrated and its limitations are shown by means of two test sections. A brief economic consideration shows the economic advantage in addition to the increased reliability of the plants.

Keywords: condition-based maintenance; acoustic model; belt conveyor; open cast mining.

References

  1. Sternitzke, L. (2021, February). LEAG. Oral communication.
  2. (2018). DIN EN 13306:2018-2. Instandhaltung ‒ Begriffe der Instandhaltung. Germany: Deutsches Institut für Normung.
  3. Sturm, A., Förster, R. (1990). Machinery and plant diagnostics for condition-based maintenance. Stuttgart: B. G. Teubner Stuttgart.
  4. Richter, C., Fessel, K., Katterfeld, A., Chumachenko, Y. (2019). Application scenario of the Internet of Things using the example of idler hot runners in belt conveyor systems. Logistics Journal Proceedings.
  5. Kebbe, J. (2019). Start-up from Hanover develops sensors for the «Internet of Things». Bitmotec GmbH. Hannover: IPH ‒ Institut für Integrierte Produktion Hannover gGmbH.
  6. Weinzierl, S. (2020). How smart sensors help monitor condition: https://www.instandhaltung.de/praxisanwendung/wie-smarte-sensoren-bei-der-zustandsueberwachung-helfen-297.html
  7. Lehman, L.-B., Daus, W., Eckardt, G., Petermann, L. (1999). Method for continuously measuring the wear of all carrying rollers in belt conveyors. Patent DE 19911642B4.
  8. Ziegler, M. (2005). Method for monitoring the band alignment and / or the tape running of a belt conveyor and belt conveyor. Patent DE 102005021627.
  9. Trippler, S. (2014). Method for detecting and locating hot components within a belt conveyor. Patent DE 102014114887.
  10. König, J., Oepen, B., R.W.E. (2017). Garland test rig for condition diagnosis of used idlers. Bergbau.
  11. Mühlenkamp, S. (2021). Monitoring of conveyor belts. Bulk material. Würzburg: Vogel Communications Group GmbH & Co. KG.
  12. (2018). ABB Ltd. Review ‒ Autonomous Collaboration. ABB Group R&D and Technology.
  13. Täschner, D. (2014). Untersuchungen der akustischen wirkung von trarollen zur zielgerichteten lärmminderung an Belurtförderanlagen (Bd. C 546). Freiberg: Technische Universität Bergakademie Freiberg.
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DOI: 10.5510/OGP2022SI100698

E-mail: Sylvio.Simon@b-tu.de


D. V. Ardashev, A. S. Degtyareva-Kashutina

South Ural State University, Chelyabinsk, Russia

Technological aspects of applying high-quality hard chrome coating to titanium parts for the oil and gas industry


Titanium parts include in deep-sea drilling and mining installations, pumps, pipelines, heat exchange equipment for various purposes and high-pressure vessels, which are used in offshore oil and gas fields. Existing methods of applying a hard chrome coating to titanium parts do not have a clear scientific justification and recommendations. The essence of author’s method is the preliminary preparation of the surface of the part by etching in a bath of concentrated hydrochloric acid, followed by surface activation by passing a current in the opposite direction. The application of a hard chrome coating is performed on a rotating part when it is partially immersed in an electrolytic bath.

Keywords: titanium; hard chrome coating; electrolyte; chrome plating; electrolytic bath; oxide film.

Titanium parts include in deep-sea drilling and mining installations, pumps, pipelines, heat exchange equipment for various purposes and high-pressure vessels, which are used in offshore oil and gas fields. Existing methods of applying a hard chrome coating to titanium parts do not have a clear scientific justification and recommendations. The essence of author’s method is the preliminary preparation of the surface of the part by etching in a bath of concentrated hydrochloric acid, followed by surface activation by passing a current in the opposite direction. The application of a hard chrome coating is performed on a rotating part when it is partially immersed in an electrolytic bath.

Keywords: titanium; hard chrome coating; electrolyte; chrome plating; electrolytic bath; oxide film.

References

  1. Shashkova, Yu. E., Smirnov, V. G. (2008). Projects, technologies and equipment made of titanium alloys for the development of oil and gas fields on the shelf. Exhibition Oil and Gas, 6/H(78), 8-10.
  2. Karlov, A. V., Shakhov, V. P. (2001). External fixation systems and regulatory mechanisms of optimal biomechanics. Tomsk: STT.
  3. Lazarev, E. M., Kornilova, Z. I., Fedorchuk, N. M. (1985). Oxidation of titanium alloys. Moscow: Nauka.
  4. Aleksander, W. A., Pidgeon, L. M. (1950). Кinetics of the oxidation of titanium. Canadian Journal of Research, 28b, 60-72.
  5. Layner, V. I. (1967) Modern electroplating. Moscow: Metallurgy.
  6. Kazakov, V. A., Lipin, A. I., Shluger, M. A. (1962). Electrolytic coatings of light alloys. Moscow: GOSINTI.
  7. Ryaboy, A. Ya., Solovyova, Z. A., Evdokimov, G. N., et al. (1981). A method for preparing the surface of titanium and its alloys. Patent SU850754.
  8. Burdina, S. M., Chistov, N. M., Frumer, L. A. (1961). A method for obtaining low-stress chrome coatings on titanium or its alloys. Patent SU141047.
  9. Plaskeev, E. V., Ovsyannikova, L. V., Kurdyukova, E. A., et al. (1984). Electrolyte for chrome plating of titanium alloys. Patent SU1114712.
  10. Zhirnov, A. D., Ilyin, V. A, Naletov, B. P., et al. (2002). Electrolyte for chrome plating of steels, copper and titanium alloys. Patent RU 2187587.
  11. Smokovich, I. Ya., Loskutova, T. V., Bobina, M. M., et al. (2013). Diffusion coatings based on chrome on titanium alloy VT6. Bulletin of SEVNTU, 137, 239-249.
  12. Solodkova, L. N., Kudryavtsev, V. N. (2007). Electrolytic chrome plating. Moscow: Globus.
  13. Yang, Z., Zhang, M. An, J., et al. (1997). Study of the process & mechanism of plating directly on titanium and its alloys. Plating and Surface Finishing, 84 (12), 68–71
  14. Pavlenko, V. V., Gerasimenko, A. A. (1997). Chrome-plating of titanium alloys and their performance. Zashchita Metallov, 33 (4), 429-433.
  15. Ryaboi, A. Ya., Vashentseva, S. M., Solov'eva, Z. A., et al. (1993). New method for chromium plating articles made of titanium alloys. Zaschita Metallov, 25 (3), 371-372.
  16. Peng, X., Xia, C., Dia, X., Ma, K. (2008). Effect of vacuum heat treatment on NiCrAlY coating/ titanium alloy substrate system. Rare Metal Materials and Engineering, 37 (9), 1619-1623
  17. Xiao, H., Clouser, S. (2011). Selective plating of metal matrix composites on titanium alloys. Corrosion Management, 102, 8-11.
  18. Yan, W., Sun, F.-J., Liu, J.-R. (2010). Cycling thermal shock resistance of Ti-Al-Cr coating deposited on Ti60 alloy by arc ion plating. Journal of Northeastern University, 31(3), 411-414.
  19. Yan, W., Sun, F., Wang, Q., et al. (2009). Hot corrosion behavior of arc-ion plating Ti-Al-Cr(Si, Y) coatings on Ti60 alloy. Acta Metallurgica Sinica, 45(10), 1171-1178
  20. Yan, W., Wang, Q., Liu, J., et al. (2009). Evaluation of oxidation of Ti-Al and Ti-Al-Cr coatings arc-ion plated on Ti-60 high-temperature titanium alloy. Journal of Materials Science and Technology, 25 (5), 637-644
  21. Klots, M. U. (1982). Experience of chemical and electrochemical processing of titanium alloy parts. Leningrad: LDNTP.
  22. Davydov, V. M. (2009) The materialology of the coating of titanium alloys by the methods of physico-chemistry and electric spark alloying. Part 1. Coatings by the methods of physicochemistry. Khabarovsk: TOGU Publishing House.
  23. Ardashev, D. V., Diakonov, A. A., Zherebtsov, D. A., et al. (2019). Installation for electroplating. Patent RU 186265.
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DOI: 10.5510/OGP2022SI100699

E-mail: ardashevdv@susu.ru


G. G. Ismayilov1, R. A. Ismailov1 , X. N. Babirov2

1Azerbaijan State Oil and İndustry University, Baku, Azerbaijan; 2«OilGasScientificResearchProject» Institute, SOCAR, Baku, Azerbaijan

Investigation of the dynamics of particle settling during separation condensing gases


The experience of operating gas separation process units shows that it is not always possible to achieve effective separation of liquid particles. Traditional calculation formulas for determining the settling rate of particles in separators are based on the thermodynamic equilibrium of the main parameters of the incoming gas flow (pressure, density). At the same time, well production, in particular condensing gases, is a nonequilibrium system, which is characterized by a certain delay (relaxation times) in changing parameters. As a result of this delay, the settling rate of particles in the separator does not have time to reach the steady state Stokes regime corresponding to effective separation. The paper proposes a nonequilibrium model for the sedimentation rate of particles and developed an algorithm for its numerical implementation. Using this algorithm, multivariate computational experiments were carried out to study the dynamics of particle settling. It was found that for the effective separation of liquid particles in a gravity separator, the relaxation time for the settling velocity of the particles should not exceed 10 sec.

Keywords: gas separation; gravity separator; particle settling rate; relaxation time.

The experience of operating gas separation process units shows that it is not always possible to achieve effective separation of liquid particles. Traditional calculation formulas for determining the settling rate of particles in separators are based on the thermodynamic equilibrium of the main parameters of the incoming gas flow (pressure, density). At the same time, well production, in particular condensing gases, is a nonequilibrium system, which is characterized by a certain delay (relaxation times) in changing parameters. As a result of this delay, the settling rate of particles in the separator does not have time to reach the steady state Stokes regime corresponding to effective separation. The paper proposes a nonequilibrium model for the sedimentation rate of particles and developed an algorithm for its numerical implementation. Using this algorithm, multivariate computational experiments were carried out to study the dynamics of particle settling. It was found that for the effective separation of liquid particles in a gravity separator, the relaxation time for the settling velocity of the particles should not exceed 10 sec.

Keywords: gas separation; gravity separator; particle settling rate; relaxation time.

References

  1. Ismayilov, R. A. (2007). Influence of nonequilibrium properties of gases on technological processes of their separation. Proceedings of Azerbaijan High Technical Educational Institutes, 6(52), 11-13.
  2. Ismayilov, R. A. (2009). Features of separation of nonequilibrium gases. Azerbaijan Oil Industry, 11, 37-39.
  3. Ismayilov, R. A. (2017). Study of nonequilibrium properties of natural gases. Oil and Gas Business, 15(3), 85-90.
  4. Guzhov, A. I., Titov, V. G., Medvedev, V. F., Vasilyev, V. A. (1978). Collection, transportation and storage of natural hydrocarbons. Moscow: Nedra.
  5. Korn, G. A., Korn, T. M. (1974). Handbook of mathematics for engineers and scientists. Moscow: Nauka.
  6. GOST 30319.2-2015. Natural gas. Methods of calculation of physical properties. Moscow: Standartinform.
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DOI: 10.5510/OGP2022SI100654

E-mail: ramismaylov@mail.ru


Y. Z. Alekperov1, H. G. Ismayilova1, R. Z. Khalilov1, Sh. F. Musayeva2

1Azerbaijan State University of Oil and Industry, Baku, Azerbaijan; 2Scientific Research Institute «Geotechnological Problems of Oil and Gas and Chemistry», Azerbaijan State Oil and Industry University, Baku, Azerbaijan

On the prospects and possibilities of managing the storage processes of natural gases in the form of hydrates in underground gas storage facilities


The article is devoted to the storage of natural gases in the form of hydrates in underground tanks (chambers). Based on the analysis of the variety of phenomena occurring in the formation and decomposition of hydrates, the expediency of storing natural gases in the form of hydrates in underground chambers was established. A formula is proposed for determining the geometric volume of underground reservoirs, taking into account the amount of gas in the form of hydrates. In the article it was also outlined the main advantages and establishes the possibility of managing the processes of storing gas in the form of hydrates, as well as obtaining it back without high energy costs.

Keywords: natural gas; gas hydrates; underground tank; gas storage; hydrate formation; thermal diffusivity.

The article is devoted to the storage of natural gases in the form of hydrates in underground tanks (chambers). Based on the analysis of the variety of phenomena occurring in the formation and decomposition of hydrates, the expediency of storing natural gases in the form of hydrates in underground chambers was established. A formula is proposed for determining the geometric volume of underground reservoirs, taking into account the amount of gas in the form of hydrates. In the article it was also outlined the main advantages and establishes the possibility of managing the processes of storing gas in the form of hydrates, as well as obtaining it back without high energy costs.

Keywords: natural gas; gas hydrates; underground tank; gas storage; hydrate formation; thermal diffusivity.

References

  1. Campbell, D. M. (19777). Purification and processing of natural gases. Moscow: Nedra.
  2. Byk, S. Sh., Fomina, V. I., Koshelev, V. S., et al. (1972). The effect of inhibiting the formation of gas hydrates caused by the addition of the third component. Gas Business, 1, 24-26.
  3. Bekirov, T. M., Lanchakov, G. A. (1999). Gas and condensate processing technology. Moscow: Nedra.
  4. Musaev, R. M. (1978). Study of the change in the enthalpy of formation of hydrates of the system, gas-water during the formation of hydrates. Scientific works of VNIPIgaz, 5.
  5. Alekperov, Yu. Z. (2010). A graphical method for determining the solubility of methanol in the natural gas hydrocarbon condensate-reservoir water system under the conditions of field gas treatment. Oilfield Engineering, 8, 42-44.
  6. Zhantayev, Zh. Sh., Zholtayev, G. Zh., Iskakov, B., Gaipova, A. (2021). Geomechanical modeling of structures oil and gas fields. News of the National Academy of Sciences of the Republic of Kazakhstan, 3(447), 39-43.
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DOI: 10.5510/OGP2022SI100655

E-mail: ismayilova.hecer@bk.ru


V. V. Bukhtoyarov1,2, I. S. Nekrasov1, V. S. Tynchenko1,2,3, K. A. Bashmur1, R. B. Sergienko4

1Siberian Federal University, Krasnoyarsk, Russia; 2Bauman Moscow State Technical University, Moscow, Russia; 3Reshetnev Siberian State University of Science and Technology, Krasnoyarsk, Russia; 4Gini Gmbh, Munich, Germany
 

Application of machine learning algorithms for refining processes in the framework of intelligent automation


The oil refining industry is facing several challenges and issues in data handling. A large amount of data is generated by many different processes and equipment. This article is devoted to methods for efficient analysis of large amounts of data in an oil refinery. In particular, the effectiveness of machine learning methods for predicting failures of process equipment in the hydrocracking process is investigated. Machine learning, as an important element of digitalization, allows us to successfully solve many production problems. The article describes the application of some machine learning algorithms for solving problems of classifying and predicting failures of hydrocracking process equipment that occur during oil refining and diesel fuel production. The application of random forest methods, principal component analysis and hyperparameter tuning is considered. The effectiveness of these methods is compared on the basis of the Accuracy parameter. It is shown that the combination of these methods will improve the accuracy of the model by 2%.

Keywords: automation; machine learning; hydrocracking; simulation; oil refinery.

The oil refining industry is facing several challenges and issues in data handling. A large amount of data is generated by many different processes and equipment. This article is devoted to methods for efficient analysis of large amounts of data in an oil refinery. In particular, the effectiveness of machine learning methods for predicting failures of process equipment in the hydrocracking process is investigated. Machine learning, as an important element of digitalization, allows us to successfully solve many production problems. The article describes the application of some machine learning algorithms for solving problems of classifying and predicting failures of hydrocracking process equipment that occur during oil refining and diesel fuel production. The application of random forest methods, principal component analysis and hyperparameter tuning is considered. The effectiveness of these methods is compared on the basis of the Accuracy parameter. It is shown that the combination of these methods will improve the accuracy of the model by 2%.

Keywords: automation; machine learning; hydrocracking; simulation; oil refinery.

References

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  23. Liu, Y., Singleton, A., Arribas-Bel, D. (2019). A principal component analysis (PCA)-based framework for automated variable selection in geodemographic classification. Geo-spatial Information Science, 22(4), 251-264.
  24. Tynchenko, V. S., Kurashkin, S. O., Tynchenko, V. V., et al. (2021). Software to Predict the Process Parameters of Electron Beam Welding. IEEE Access, 9, 92483-92499.
  25. Ferreira, B., Silva, R. G., Pereira, V. (2017). Feature selection using non-binary decision trees applied to condition monitoring. In: 22nd IEEE International Conference on Emerging Technologies and Factory Automation (ETFA), Limassol, Cyprus, 12-15 September 2017.
  26. Nekrasov, I., Tynchenko, V., Bukhtoyarov, V., et al. (2022). Simulation of the hydrocracking process to produce diesel fuel in the Aspen HYSYS system. In: IV International Scientific Conference «Advanced Technologies in Aerospace, Mechanical and Automation Engineering» - «MIST: Aerospace-IV 2021», Krasnoyarsk, Russia, 10-11 December 2021.
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DOI: 10.5510/OGP2022SI100665

E-mail: bashmur@bk.ru


O. A. Kolenchukov1, V. V. Bukhtoyarov1,2, T. N. Kolenchukova1, R. B. Sergienko3, K. A. Bashmur1

1Institute of Petroleum and Natural Gas Engineering, Siberian Federal University, Krasnoyarsk, Russia; 2Digital Material Science: New Materials and Technologies, Bauman Moscow State Technical University, Moscow, Russia; 3Gini Gmbh, Munich, Germany

Evaluation of the effect of various catalysts on the yield of hydrogen and nanofiber carbon during pyrolysis of hydrocarbon gases


This article provides a literary review of pyrolysis catalysts for the production of alternative energy fuel in the form of hydrogen, as well as an equally useful product of nanofiber carbon. A theoretical analysis of the effectiveness of the use of catalysts based on the yield of a useful product was carried out. It was found that the most promising catalysts for industrial use are high-percentage nickel and copper-nickel catalysts. Most effective catalyst in the process of obtaining hydrogen by the method of catalytic decomposition of hydrocarbon gases is the 40Ni/SiO2 catalyst, the yield of hydrogen when used is 80.7 mol/gcat, and the highest yield of nanofiber carbon 449 g/gcat makes it possible to obtain a bimetallic catalyst (75Ni-15Cu)/Al2O3. The methods of preparation of applied catalysts are also considered, the advantages and disadvantages of each are described.

Keywords: bimetallic Fe-Co catalysts; bimetallic Ni-Cu catalysts; pyrolysis catalysts; conversion of hydrocarbon gases; nanofiber carbon; nickel catalyst; hydrogen production.

This article provides a literary review of pyrolysis catalysts for the production of alternative energy fuel in the form of hydrogen, as well as an equally useful product of nanofiber carbon. A theoretical analysis of the effectiveness of the use of catalysts based on the yield of a useful product was carried out. It was found that the most promising catalysts for industrial use are high-percentage nickel and copper-nickel catalysts. Most effective catalyst in the process of obtaining hydrogen by the method of catalytic decomposition of hydrocarbon gases is the 40Ni/SiO2 catalyst, the yield of hydrogen when used is 80.7 mol/gcat, and the highest yield of nanofiber carbon 449 g/gcat makes it possible to obtain a bimetallic catalyst (75Ni-15Cu)/Al2O3. The methods of preparation of applied catalysts are also considered, the advantages and disadvantages of each are described.

Keywords: bimetallic Fe-Co catalysts; bimetallic Ni-Cu catalysts; pyrolysis catalysts; conversion of hydrocarbon gases; nanofiber carbon; nickel catalyst; hydrogen production.

References

  1. Puchkov, L. A., Vorob'yev, B. M., Vasyuchkov, Yu. F. (2006). The 21st century is the century of hydrogen. Ultrapure hydrogen coal energy complex. Mining information and analytical bulletin (scientific and technical journal), 1, 210-218.
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  3. Kolenchukov, O. A., Petrovsky, E. A., Bashmur, K. A., et al. (2021). Simulating the hydrocarbon waste pyrolysis in reactors of various designs. SOCAR Proceedings, 2, 1-7.
  4. Timmerberg, S., Kaltschmitt, M., Finkbeiner, M. (2020). Hydrogen and hydrogen-derived fuels through methane decomposition of natural gas – GHG emissions and costs. Energy Conversion and Management: X, 7, 100043.
  5. Kozhitov, L. V, Zaporotskova, I. V., Kozlov V. V. (2009-2010). Promising carbon nanomaterials. Bulletin of VolGU, 10(4), 63-85.
  6. Shinkarev, V. V., Glushenkov, A. M., Kuvshinov, D. G., Kuvshinov, G. G. (2009). New effective catalysts based on mesoporous nanofibrous carbon for selective oxidation of hydrogen sulfide. Applied Catalysis B: Environmental, 85(3-4), 180-191.
  7. Kuvshinov G. G., Shinkarev V. V., Glushenkov A. M., et al. (2006). Catalytic properties of nanofibrous carbon in selective oxidation of hydrogen sulphide. China Particuology, 4(2), 70-72.
  8. Mohamed, A. (2019). Chapter 8: Synthesis, characterization, and applications carbon nanofibers / in: Carbon-based nanofillers and their rubber nanocomposites: Carbon nano-objects / Yaragalla, S., Mishra, R., Thomas, S., et al. (Eds.). Amsterdam, The Netherlands: Elsevier.
  9. Yang, Z., Wang, C., Lu, X. (2019). Chapter 3: Nanofibrous materials. / in: Electrospinning: nanofabrication and applications / Ding, B., Wang, X., Yu, J. (Eds.). Norwich, NY, USA: William Andrew Publishing.
  10. Kolenchukov, O. A., Petrovsky, E. A., Mikhaylov, A. Yu., Bashmur, K. A. (2021). Investigation of nanofiber material production by catalytic pyrolysis. Materials Science Forum, 1031, 37-42.
  11. Li, Y., Li, D., Wang, G. (2011). Methane decomposition to COx-free hydrogen and nano-carbon material on group 8-10 base metal catalysts: A review. Catalysis Today, 162(1), 1-48.
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DOI: 10.5510/OGP2022SI100684

E-mail: bashmur@bk.ru


O. A. Kolenchukov1, K. A. Bashmur1, V. V. Bukhtoyarov1,2, R. B. Sergienko3, V. S. Tynchenko1,2,4

1Institute of Petroleum and Natural Gas Engineering, SFU, Krasnoyarsk, Russia; 2Digital Material Science: New Materials and Technologies, Bauman MSTU, Moscow, Russia; 3Gini Gmbh, Munich, Germany; 4ICST, Reshetnev SSU of Science and Technology, Krasnoyarsk, Russia

The experimental research of n-butane pyrolysis using an agitator


This research aims to improve the thermal processes of oil sludge treatment. The goal of this research is to determine the impact of the agitator on the output of hydrocarbon gas mixes and hydrogen during the catalytic pyrolysis of n-butane (C4H10), the product of stage one of the complex oil sludge treatment. To conduct the research, the authors developed a setup for the testing of a pyrolysis reactor with an agitator to assess its efficiency in terms of target n-butane breakdown products, namely hydrocarbon mixes and hydrogen. In this research, the authors used 70Ni–20Cu–10Al2O3 as a catalyst. The components of the obtained gas mix were analyzed using the chromatographic method. The results show that the use of the agitator during the catalytic pyrolysis of n-butane can increase the output of the target product. In particular, the hydrogen output increased by ~7.2% over the reaction period (12 hours) compared to the setup without an agitator. The authors determined that the optimal reaction time for the production of hydrogen and butane-hydrogen mix is 4 hours.

Keywords: petroliferous sludge; hydrocarbon gas mix; n-butane; catalytic pyrolysis; experimental setup; reactor; agitator.

This research aims to improve the thermal processes of oil sludge treatment. The goal of this research is to determine the impact of the agitator on the output of hydrocarbon gas mixes and hydrogen during the catalytic pyrolysis of n-butane (C4H10), the product of stage one of the complex oil sludge treatment. To conduct the research, the authors developed a setup for the testing of a pyrolysis reactor with an agitator to assess its efficiency in terms of target n-butane breakdown products, namely hydrocarbon mixes and hydrogen. In this research, the authors used 70Ni–20Cu–10Al2O3 as a catalyst. The components of the obtained gas mix were analyzed using the chromatographic method. The results show that the use of the agitator during the catalytic pyrolysis of n-butane can increase the output of the target product. In particular, the hydrogen output increased by ~7.2% over the reaction period (12 hours) compared to the setup without an agitator. The authors determined that the optimal reaction time for the production of hydrogen and butane-hydrogen mix is 4 hours.

Keywords: petroliferous sludge; hydrocarbon gas mix; n-butane; catalytic pyrolysis; experimental setup; reactor; agitator.

References

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  12. Petrovsky, E. A., Kolenchukov, O. A., Solovyev, E. A. (2019). Study of pyrolysis of oil sludge. IOP Conference Series: Materials Science and Engineering, 537, 032082.
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  14. Zubairov, S. G., Akhmetov, A. F., Bayramgulov, A. S., et al. (2018). Evaluation of strain-stress states of initial and improved designs of the modules for oil sludge pyrolysis. SOCAR Proceedings, 2, 71-76.
  15. Sokolov, L. I., Khazenkamp, P., Flamme, S., Kibardina, S. M. (2019). Collection and recycling of solid municipal waste. Vologda: Infra-Inzheneriya.
  16. Likholobov, V. A. (1997). Catalytic synthesis of carbon materials and their application in catalysis. Soros
    Educational Journal, 5, 35-42.
  17. Milstein, L. M., Boyko, S. I., Zaporozhets, E. P. (1991). Oil and gas separation equipment. Moscow: Nedra.
  18. Krivoruchko, O. P. (1998). Scientific bases for preparation of oxide supports and catalysts via sol-gel methods. Studies in Surface Science and Catalysis, 118, 593-600.
  19. Ermakova, M. A., Ermakov, D. Yu., Kuvshinov, G. G., Plyasova, L. M. (1999). New nickel catalysts for the formation of filamentous carbon in the reaction of methane decomposition. Journal of Catalysis, 187, 77-84.
  20. Popov, M. V., Brezgin, P. I., Solov'yev, Ye. A., Kuvshinov, G. G. (2013). Produce hydrogen and carbon nanofibers by catalytic pyrolysis of methane on ni-based catalysts under pressure. International Scientific Journal for Alternative Energy and Ecology, 3(2), 36-41.
  21. Solov'yov, Ye. A., Kuvshinov, G. G. (2011). Hydrogen and nanofibrous carbon: Obtaining by the method of selective catalytic pyrolysis of hydrocarbons. Saarbrücken: LAP LAMBERT Academic Publishing.
  22. Yeroshov, A. I. (2016). Fundamentals of scientific research and innovation. Minsk: MGEU im. A.D. Sakharova
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DOI: 10.5510/OGP2022SI100685

E-mail: bashmur@bk.ru


A. S. Imanov, I. A. Khalilov

Azerbaijan Technical University, Baku, Azerbaijan

3D modeling and analysis of gas flow in the interblade channel


Based on the equations obtained from the solution of the differential equation of curvature-inverse problem, processed in Mathcad, curves of flat contours, a geometric model of the blade airfoil profile was created in three sections - root, middle and peripheral. The distribution of velocities along the back and trough of the profile is presented. A 3D model of a blade based on a section and guide lines was built in SolidWorks and exported in the parasolid format to the ANSYS AIM 17.2 software package. For engineering analysis, the boundary conditions were determined - the type of working substance, the absolute temperature, the inlet velocity of the molasses, the static pressure at the outlet, etc. For the interblade channel, a hexagonal (structured) finite element mesh was created in an automated version. Careful selection of the boundary conditions leads to the accuracy of determining the results of the flow parameters. Based on carefully processed results, the blade optimization was carried out.

Keywords: curvature; profiling; back curve; ideal gas; numerical simulation; turbulent flow; solid model.

Based on the equations obtained from the solution of the differential equation of curvature-inverse problem, processed in Mathcad, curves of flat contours, a geometric model of the blade airfoil profile was created in three sections - root, middle and peripheral. The distribution of velocities along the back and trough of the profile is presented. A 3D model of a blade based on a section and guide lines was built in SolidWorks and exported in the parasolid format to the ANSYS AIM 17.2 software package. For engineering analysis, the boundary conditions were determined - the type of working substance, the absolute temperature, the inlet velocity of the molasses, the static pressure at the outlet, etc. For the interblade channel, a hexagonal (structured) finite element mesh was created in an automated version. Careful selection of the boundary conditions leads to the accuracy of determining the results of the flow parameters. Based on carefully processed results, the blade optimization was carried out.

Keywords: curvature; profiling; back curve; ideal gas; numerical simulation; turbulent flow; solid model.

References

  1. Hirsch, C. (2007). Numerical computation of internal and external flows: The Fundamentals of Computational Fluid Dynamics, 2nd Edition. Elsevier, Butterworth-Heinemann.
  2. Van den Braembussche, R. A. (2002). Turbomachinery component design by means of CFD. Task Quarterly, 6(1), 39-61.
  3. Aronov, B. M., Zhukovsky, M. I., Zhuravlev, V. A. (1975). Profiling of blades of aviation gas turbines. Moscow: Mashinostroyeniye.
  4. Imanov, A. S. (2003). Profiling blades according to the geometric quality criterion based on the solution of inverse problems aviation technology. Izvestiya Universities, 1, 64-66.
  5. Imanov, A. S. Khalilov, I. A. (2021, December) Research of development processes in three-dimensional gas flows in turbomachine. In: International Scientific-practical Conference «Machine-building and energy: New concepts and technologies”, Baku, Azerbaijan.
  6. Imanov, A. S. (2015). Profiling of flat aircraft blades based on the differential equation of curvature. Bulletin of Engine Building, 2, 154-158.
  7. Ershov, S. V., Yakovlev, V. A. (2015). On the choice of the degree of mesh refinement in the calculation of three-dimensional viscous gas flows in turbomachines. Bulletin of Engine Building, 2, 171-177.
  8. Khalilov, I. A., Imanov, A. S. (2017). Simulation of a cam mechanism taking into account quality criteria. Bulletin of the Kherson National Technical University, 4(63), 126-134.
  9. Imanov, A. S., Khalilov, I. A. (2018). Kinematic analysis of a fist mechanism based on the quality index of curvature. In: International Scientific and Technical Conference «Measurement and quality: Problems, prospects», Baku, Azerbaijan.
  10. Imanov, A. S., Khalilov, I. A. (2019). Construction of the profile of the stators of two-plate hydraulic machines on the basis of curvature. In: I International Scientific-Practical Conference «Universities of Azerbaijan and Turkey: Education, Science, Technology».
  11. Imanov, A. S., Khalilov, I. A., Aliyev, A. G. (2021, October). New approach to calculation of transition curves on curved roads. In: International Conference on Problems of Logistics, Management and Operation in the East-West Transport Corridor (PLMO), Baku, Azerbaijan.
  12. Khalilov, I. A., Kerimov, S. Kh., Imanov, A. S. (2017). Analytical definition of the radius of curvature of the profile of the fist mechanism with a roller puller. Herald of the Azerbaijan Engineering Academy, 9(4), 25-29.
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DOI: 10.5510/OGP2022SI100690

E-mail: khalilov@aztu.edu.az


S. A. Bogatenkov1, N. S. Sazonova1, N. D. Yusubov2, H. M. Abbasova2, B. B. Badalova2, R. I. Bazhenov3

1South Ural State University, Chelyabinsk, Russia; 2Azerbaijan Technical University, Baku, Azerbaijan; 3Amur State University named after Sholom Aleichem, Birobidzhan, Russia

Decision-making in the conditions of introduction of automated design systems of technological processes in enterprises of oil machine building


To ensure the effectiveness of professional activities in the face of increasing requirements for the scope of design work and production preparation time, computer-aided design of technological processes (CAD of TP) systems are used. However, there is a problem of safe implementation of CAD of TP. The aim of the study is to develop a decision-making methodology for adapting CAD of TP to the conditions of oil machine building enterprises and to the work of personnel based on a systematic approach to threat analysis. The methodology includes methods for choosing CAD of TP, using text and graphic prompts when entering information, as well as applying methods for unifying various CAD systems and adapting them to enterprise conditions at the database level. The results of the study are implemented in CAD for operations performed on multi-spindle horizontal automatic lathes and are used at South Ural State University and Azerbaijan Technical University.

Keywords: technological process, computer-aided design, decision making, design methods, ways of adaptation, oil machine building.

To ensure the effectiveness of professional activities in the face of increasing requirements for the scope of design work and production preparation time, computer-aided design of technological processes (CAD of TP) systems are used. However, there is a problem of safe implementation of CAD of TP. The aim of the study is to develop a decision-making methodology for adapting CAD of TP to the conditions of oil machine building enterprises and to the work of personnel based on a systematic approach to threat analysis. The methodology includes methods for choosing CAD of TP, using text and graphic prompts when entering information, as well as applying methods for unifying various CAD systems and adapting them to enterprise conditions at the database level. The results of the study are implemented in CAD for operations performed on multi-spindle horizontal automatic lathes and are used at South Ural State University and Azerbaijan Technical University.

Keywords: technological process, computer-aided design, decision making, design methods, ways of adaptation, oil machine building.

References

  1. Korchak, S. N. (1988). Computer-aided design of technological processes, devices and cutting tools. Moscow: Mashinostroenie.
  2. Kondakov, A. I. (2010). CADS of technological processes. Moscow: Academy.
  3. Navigating Complexity: A Practice Guide, PMI. URL: http://www.pmi.org/en/PMBOK-Guide-and-Standards/Standards-Library-of-PMI-Global-Standards.aspx
  4. (2013). Navigating Complexity. Part of Pulse of the Profession®, The High Cost of Low Performance 2013 series. Project Management Institute.
  5. Murugov, V. (2021). New Vertical technology - a modern tool for a process engineer. CADS and Graphics, 5, 20-27.
  6. Bykov, A., Karabcheev, K. (2020). Direct 3D editing and automatic technology development in the ADEM system. Notes on artificial intelligence CADS. CADS and Graphics, 1, 40-45.
  7. Bogatenkov, S. A., Sazonova, N. S., Yusubov, N. D., et al. (2021). Increasing the productivity of multitool machining on automated lathes by optimizing the machining plan. Russian Engineering Research, 41(11), 1071-1074.
  8. Bogatenkov, S. A., Sazonova, N. S., Guzeev, V. I., et al. (2021). Increasing the productivity of multitool machining on automated lathes by optimizing the tool positions. Russian Engineering Research, 41(11), 1075-1079.
  9. Langelaar, M. (2019). Topology optimization for multi-axis machining. Computer Methods in Applied Mechanics and Engineering, 351, 226-252.
  10. Vijay, S., Krishnaraj, V. (2013). Machining parameters optimization in end milling of Ti-6Al-4V. Procedia Engineering, 64, 1079-1088.
  11. Park, H.-S., Qi, B., Dang, D.-V., Park, D. Y. (2018). Development of smart machining system for optimizing feedrates to minimize machining time. Journal of Computational Design and Engineering, 5(3), 299-304.
  12. Petunin, A. A., Stylios, C. (2016). Optimization models of tool path problem for CNC sheet metal cutting machines. IFAC-PapersOnLine, 49(12), 23-28.
  13. Pritchard, T., Smith, C., Ghadbeigi, H., et al. (2019). Modelling orthogonal and oblique cutting via discontinuity layout optimization. Procedia CIRP, 82, 37-42.
  14. Kuntoğlu, M., Sağlam, H. (2019). Investigation of progressive tool wear for determining of optimized machining parameters in turning. Measurement, 140, 427-436.
  15. Chávez-García, H., Castillo-Villar, K. K. (2018). Simulation-based model for the optimization of machining parameters in a metal-cutting operation. Simulation Modelling Practice and Theory, 84, 204-221.
  16. Hu, L., Tang, R., Cai, W., et al. (2019). Optimisation of cutting parameters for improving energy efficiency in machining process. Robotics and Computer-Integrated Manufacturing, 59, 406-416.
  17. Pereverzev, P. P., Akintseva, A. V. (2015). Automatic cycles multiparametric optimization of internal grinding. Procedia Engineering, 129, 121-126.
  18. Koshin, A. A. (1986). Application software package TOPAZ. Moscow: OFAP, CADS T and APCS.
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DOI: 10.5510/OGP2022SI100691

E-mail: nizami.yusubov@aztu.edu.az


G. G. Yagafarova, A. Kh. Safarov, I. G. Migranova, L. R. Akchurina, D. I. Mikulik

Ufa State Petroleum Technological University, Ufa, Russia

Research on resistance of oil-oxidizing microorganisms to the action of ionizing radiation


The article presents the results of a study of the resistance of certain types of soil microorganisms to the combined effects of chemical and radiation pollution. In particular, data on the resistance to gamma radiation of a consortium of indigenous oil-oxidizing microorganisms isolated from oil-contaminated soil are presented. The studies were carried out according to two changing parameters: the distance from the radiation source, as well as the exposure time. Additionally, researches were conducted to study the effect of radiation on the enzymatic activity of the test media. During the work, it was found that ionizing radiation has a depressing effect on the enzymatic activity of soils. At the same time, studies allowed us to conclude, that certain types of soil microorganisms, that are part of the microbiocenosis of oil-contaminated soils (in particular Rhodococcus erythropolis, Pseudomonas putida and micromycete Aspergillus species) are resistant to gamma radiation at an irradiation dose of up to 1.55 mSv/h and an exposure time of up to 60 minutes.

Keywords: radiation; oil-ontaminated soils; native oiloxidizing microorganisms; resistance; enzymatic activity.

The article presents the results of a study of the resistance of certain types of soil microorganisms to the combined effects of chemical and radiation pollution. In particular, data on the resistance to gamma radiation of a consortium of indigenous oil-oxidizing microorganisms isolated from oil-contaminated soil are presented. The studies were carried out according to two changing parameters: the distance from the radiation source, as well as the exposure time. Additionally, researches were conducted to study the effect of radiation on the enzymatic activity of the test media. During the work, it was found that ionizing radiation has a depressing effect on the enzymatic activity of soils. At the same time, studies allowed us to conclude, that certain types of soil microorganisms, that are part of the microbiocenosis of oil-contaminated soils (in particular Rhodococcus erythropolis, Pseudomonas putida and micromycete Aspergillus species) are resistant to gamma radiation at an irradiation dose of up to 1.55 mSv/h and an exposure time of up to 60 minutes.

Keywords: radiation; oil-ontaminated soils; native oiloxidizing microorganisms; resistance; enzymatic activity.

References

  1. Efremov, A. L. (2006). Dynamics of soil microflora and microbial metabolites under conditions of radioactive contamination. In: Abstract of reports at the International Conference «Radioactivity upon Nuclear Explosions and Accidents». St. Petersburg: Gidrometeoizdat.
  2. Zhdanova, N. N. (1991). Kompleksy pochvennyh mikromicetov v zone vliyaniya Chernobyl'skoj AES. Mikrobiologicheskij zhurnal, 53(4), 3-9.
  3. Karbysheva, E. A., Rodina, N. E. (1985). Letal'noe i mutagennoe dejstvie dlinnovolnovogo UF-izlucheniya na predstavitelej raznyh grupp mikroorganizmov. Tezisy VII s"ezda VMO. Alma-Ata.
  4. Krivoluckij, D. A., Tihomirov, F. A. (1988). Dejstvie ioniziruyushchej radiacii na biogeocenoz. Moskva: Nauka.
  5. Mejsel' M. N. (1955). O biologicheskom dejstvii ioniziruyushchih izluchenij na mikroorganizmy. Doklady sovetskoj delegacii mezhdunarodnoj konferencii po mirnomu ispol'zovaniyu atomnoj energii. Dejstvie oblucheniya na organizm. Moskva: Izdatel'stvovo Akademii nauk SSSR.
  6. Romanovskaya V. A., Stolyar S. M., Malashenko YU. R., SHatohina E. S. (1996). Vliyanie dlitel'nogo dejstviya radiacii na raznoobrazie geterotrofnyh bakterij v pochvah 10-km zony CHAES. Mikrobiologicheskij zhurnal, 58(5), 3-11.
  7. Romanovskaya, V. A., Sokolov, I. G., Rokitko, P. V., Chernaya, N. A. (1998). Effect of radioactive contamination on soil bacteria in the 10-km zone around the Chernobyl Nuclear Power Plant. Microbiology, 67(2), 274-280.
  8. Doyi, I., Essumang, D. K., Dampare, S., Glover, E. T. (2009). Technologically enhanced naturally occurring radioactive materials (TENORM) in the oil and gas industry: A review. Reviews of Environmental Contamination and Toxicology, 54(1), 3−9.
  9. Zakaria, Kh. M. (2018). Radiological impacts of NORM and poly aromatic hydrocarbon in petroleum industry process on marine ecosystem at the Red sea, Egypt. International Journal of Environmental Sciences & Natural Resources, 9(1), 4-12.
  10. Gerhard, F. (1983). Metody obshchej bakteriologii. Moskva: Mir.
  11. Haziev, F. H. (2005). Metody pochvennoj enzimologii. Moskva: Nauka.
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DOI: 10.5510/OGP2022SI100652

E-mail: akchurina_lr@mail.ru


N. A. Yusifbayli1, V. X. Nasibov2

1Azerbaijan Technical University, Baku, Azerbaijan 2Azerbaijan Research and Design–Prospecting Institute of Energetics, Baku, Azerbaijan

Some problems of energy security in the context of widespread use of RES


The potential use of renewable energy sources in Azerbaijan in the context of feasibility is reviewed in this paper. It is shown that in connection with the environmental problems associated with fuel combustion, as well as in connection with the depletion of fossil fuel reserves, it is advisable to use environmentally friendly and inexhaustible types of renewable energy sources.

Keywords: renewable energy sources; installed capacity; solar energy; wind energy; power plant; power generation.

The potential use of renewable energy sources in Azerbaijan in the context of feasibility is reviewed in this paper. It is shown that in connection with the environmental problems associated with fuel combustion, as well as in connection with the depletion of fossil fuel reserves, it is advisable to use environmentally friendly and inexhaustible types of renewable energy sources.

Keywords: renewable energy sources; installed capacity; solar energy; wind energy; power plant; power generation.

References

  1. Senderov, S. M., Yusifbayli, N. A., Rabchuk, V. I., et al. (2019). Geopolitical features of energy security in the Caspian regions of Russia and Azerbaijan. Geopolitics of Energy, 41(1), 5-9.
  2. Lenzi, V., Ulbig, A., Andersson, G. (2013). Impacts of forecast accuracy on grid integration of renewable energy sources. In: Proceedings of the 2013 IEEE Grenoble Conference Power Tech, POWERTECH 2013.
  3. Renewable Energy Market 2022 - Sector Analysis and Statistics, https://www.reportlinker.com/market-report/Renewable-Energy
  4. Terna Energy - https://www.terna-energy.com/about/advantages-of-res/
  5. IRENA (2020). Renewable capacity statistics 2020 International Renewable Energy Agency (IRENA). Abu Dhabi.
  6. http://www.res-legal.eu/en/search-by-country/italy/
  7. Dreidy, M., Mokhlis, H., Mekhilef, S. (2017). Inertia response and frequency control techniques for renewable energy sources: A review. Renewable and Sustainable Energy Reviews, 69, 144–155.
  8. Bayindir, R., Demirbas, S., Irmak, E., et al. (2016, September). Effects of renewable energy sources on the power system. In: IEEE International Power Electronics and Motion Control Conference (PEMC), Varna, Bulgaria.
  9. Tambunan, H. B., Hakam, D. F., Prahastono, I., et al. (2020). The challenges and opportunities of renewable energy source (RES) penetration in Indonesia: Case Study of Java-Bali Power System. Energies, 13(22), 5903.
  10. Yusifbayli, N. A., Aghaliyev, N. N. (2020). Assessment of power system flexibility. EEEC - Scientific – Industrial Journal, 10(2), 56-67.
  11. Senderov, S. M., Yusifbeyli, N. A., Rabchuk, V. I., et al. (2020). Analysis of geopolitical factors during development of oil and gas shelf of the Caspain Sea by Azerbaijan. Geopolitics of Energy, 42(1), 13-19.
  12. Yusifbeyli, N. A., Nasibov, V. Kh. (2020). Comparative analysis of Azerbaijan’s energy sector efficiency trend at the current development stage. E3S Web of Conferences. ENERGY-21- Sustainable Development & Smart Management, 209, 01003.
  13. Ackermann, T., Prevost, T., Vittal, V., et al. (2017). Paving the way: A future without inertia is closer than you think. IEEE Power and Energy Magazine, 15(6), 61–69.
  14. Kundur, P., Balu, N. J., Lauby, M. G. (1994). Power system stability and control. New York, NY, USA: McGraw-Hill.
  15. Tielens, P., Van Hertem, D. (2012, April). Grid inertia and frequency control in power systems with high penetration of renewables. In: Proceedings of the Young Researchers Symposium in Electrical Power Engineering, Delft, The Netherlands.
  16. Senderov, M., Yusifbeyli, N. A., Rabchuk, V. I., et al. (2018). Modern problems of energy security of the Caspian regions of Russia and Azerbaijan. E3S Web of Conferences, International Conference Green Energy and Smart Grids (GESG 2018), 69.
  17. Yusifbeyli, N. A., Nasibov, V. X. (2014, June-July) Determination of the efficiency index of the architecture of the functioning of the energy sector in Azerbaijan. In: 86th meeting of the International Scientific Seminar named Yu. N. Rudenko «Methodological issues in the study of the reliability of large energy systems». Reliability of liberalized energy systems, St. Petersburg, Russia.
  18. Yusifbayli, N. A., Nasibov, V. X. (2013). Energy sustainability index of Azerbaijan and the potentials of its improvement. Electroenergetics, Electrotechnics, Electromechanics + Control, 4(4), 13-23.
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DOI: 10.5510/OGP2022SI100701

E-mail: yusifbayli.n@gmail.com


G. M. Talybov, N. Y. Akhmedova, F. V. Yusubov

Azerbaijan Technical University, Baku, Azerbaijan

Synthesis of trans-2-benzyloxy-3(4-chloro(bromophenyl)oxiranes and their application as antimicrobial additives to oils and fuels


The condensation reaction of chloromethylbenzyl ether with chloro(bromo)-substituted benzaldehydes in the presence of sodium hydroxide under the conditions of interphase catalysis (catalyst – TEBAC) has been studied. The synthesis method for 2-benzyloxy-3-aryloxiranes has been developed. The synthesis of oxiranes takes place stereoselectively with the formation of trans-isomers. The obtained compounds have been studied as antimicrobial additives for lubricating oils and fuels.

Keywords: chloro(bromo)-substituted benzaldehydes; chloromethylbenzyl ether; trans-isomers; 2,3-disubstituted oxiranes; inretphase catalysis; antimicrobial additives.

The condensation reaction of chloromethylbenzyl ether with chloro(bromo)-substituted benzaldehydes in the presence of sodium hydroxide under the conditions of interphase catalysis (catalyst – TEBAC) has been studied. The synthesis method for 2-benzyloxy-3-aryloxiranes has been developed. The synthesis of oxiranes takes place stereoselectively with the formation of trans-isomers. The obtained compounds have been studied as antimicrobial additives for lubricating oils and fuels.

Keywords: chloro(bromo)-substituted benzaldehydes; chloromethylbenzyl ether; trans-isomers; 2,3-disubstituted oxiranes; inretphase catalysis; antimicrobial additives.

References

  1. Danilov, A. M. (2010). Application of additives in fuels. St. Petersburg: Himizdat.
  2. Gnatchenko, I. I., Borodin, V. A., Repnikov, V. R. (2000). Automotive oils, lubricants, additives: motorist's guide. St. Petersburg: Poligon.
  3. Kuliyev, A. M. (1972). Chemistry and technology of oil and fuels additives. Moscow: Khimiya.
  4. Druk, V. G., Katzev, V. G., Voezekhovskaya, M. A. (1999). Oxirans – synthesis and biological activity. Мoscow: Bogorodskii pechatnik.
  5. Li, J. J. (2006). Name reactions. Darzens reaction. Moscow: BINOM Laboratoria Znanii.
  6. Talybov, G. M., Dzafarova, N. V., Bairamova, S. T. (2015). Condensation of chloromethyl propargyl ether wuth carbonyl compounds. Russian Journal of Organic Chemistry, 51(7), 1028–1029.
  7. Talybov, G. M. (2015). Condensation of chloromethyl propargyl ether with nitrils. Russian Journal of Organic Chemistry, 53(2), 294–295.
  8. Talybov, G. M. (2017). New synthesis of 1,2-diol monopropargyl ethers. Russian Journal of Organic Chemistry, 53(1), 123–124.
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DOI: 10.5510/OGP2022SI100688

E-mail: gtalibov61@gmail.com


H. S. Aliyev, H. V.Fattayev

Azerbaijan Technical University, Baku, Azerbaijan

Impedance spectroscopy of polymer-ceramic composites


Polymer-ceramic composites from a new class of construction and functional materials of great potential applications in having combined hardness and stiffness of ceramics along with flexibility, elasticity, low density, and higher breakdown strength of polymers and hence are being increasingly harnessed for their specific dielectric, ferroelectric, piezoelectric, piezoelectric, electro-optic, as well as superconducting properties in micro-devices. The charge transport mechanism in polymer-ceramic composites is a longstanding problem. Alternating Current Impedance Spectroscopy (ACIS) is faind to be a valuable experimental tool for the understanding of the phenomenon of the charge transport in micro-and nano composites.

Keywords: polymer composite; impedance spectroscopy; polymer; complex resistance; electric field; relaxation time; phase shift angle.

Polymer-ceramic composites from a new class of construction and functional materials of great potential applications in having combined hardness and stiffness of ceramics along with flexibility, elasticity, low density, and higher breakdown strength of polymers and hence are being increasingly harnessed for their specific dielectric, ferroelectric, piezoelectric, piezoelectric, electro-optic, as well as superconducting properties in micro-devices. The charge transport mechanism in polymer-ceramic composites is a longstanding problem. Alternating Current Impedance Spectroscopy (ACIS) is faind to be a valuable experimental tool for the understanding of the phenomenon of the charge transport in micro-and nano composites.

Keywords: polymer composite; impedance spectroscopy; polymer; complex resistance; electric field; relaxation time; phase shift angle.

References

  1. Pandey, M., Joshi, G. I., Deshmukh, K., Ahmed, J. (2015). Impedance spectroscopy and conductivity studies of CdCl2 doped polymer electrolyte. Advanced Materials Letters, 6(2), 165-171.
  2. Senthil, V., Bahapanda, T., Kumar, S. N., et al. (2012). Relaxation and conduction mechanism of PVA:BYZT polymer composites by impedance spectroscopy. Journal of Polymer Research, 19, 9838.
  3. Khan, I., Saeed, K., Khan, I. (2019). Nanoparticles: properties, applications and toxicities. Arabian Journal of Chemistry, 12(7), 908–931.
  4. Kidalov, S. V., Shakhov, F. M., Vul, A. Y. (2008). Thermal conductivity of sintered nanodiamonds and microdiamonds. Diamond and Related Materials, 17(4), 844–847.
  5. Kirsh, I. A., Pomogova, D. A., Sogrina, D. A. (2013). Biodecomposed polymeric compositions on the basis of agriculture’s waste / in «Progress in organic and physical chemistry». Apple Academic Press.
  6. Kochetov, R. (2011). Modeling of the thermal conductivity in polymer nanocomposites and the impact of the interface between filler and matrix. Journal of Physics D: Applied Physics, 44(39), 1-12.
  7. Kurbanov, M. A., Aliev, Kh. S., Kerimov, E. A., Sultanakhmedova, I. S. (2009). Plasma crystallization of polymerferroelectric/ piezoelectric ceramic composites and their piezoelectric properties. Physics of the Solid State, 51(6), 1223-1230.
  8. Kurbanov, M. A., Aliyev, H. S., Allahverdiyev, Z. A., Niftiyev, S. N. (1997). Influence of the polarity of the polymer matrix on thermal, electric and mechanical properties of composites on the basis of polymers-nitrides and carbides of metals. In: Elektik-Elektonic Bilgisayar Muhendisligi 7 Ulusal Kongresi, Turkiye, Ankara.
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DOI: 10.5510/OGP2022SI100689

E-mail: hikmetaliyev@aztu.edu.az


Yu. I. Puzin, P. Yu. Puzin

Ufa State Petroleum Technological University, Ufa, Russia

Influence of ferrocene on the solution polymerization of methyl methacrylate


Kinetic study of the methyl methacrylate solution polymerization in the presence of ferrocene in solvents, differing in polarity (benzene, toluene, ethyl acetate) has been carried out. It is shown that the speed of the process is significantly increased and activation energy of polymerization falls largely in the presence of ferrocene. The influence of the polarity of the medium on the kinetic parameters of the process is traced. The largest increase in speed and drop in activation energy of polymerization observed in the most polar ethyl acetate.

Keywords: methyl methacrylate; ferrocene; solution polymerization; solvent polarity.

Kinetic study of the methyl methacrylate solution polymerization in the presence of ferrocene in solvents, differing in polarity (benzene, toluene, ethyl acetate) has been carried out. It is shown that the speed of the process is significantly increased and activation energy of polymerization falls largely in the presence of ferrocene. The influence of the polarity of the medium on the kinetic parameters of the process is traced. The largest increase in speed and drop in activation energy of polymerization observed in the most polar ethyl acetate.

Keywords: methyl methacrylate; ferrocene; solution polymerization; solvent polarity.

References

  1. Nikolaev, A. F., Kryzhanovsky, V. K., V. V. Burlov, et al. (2008). Technology of polymer materials. St. Petersburg: Publishing House Profession.
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DOI: 10.5510/OGP2022SI200653

E-mail: ppuziny@mail.ru