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Якорь 1
M.A. Lur’e
 
Hypogenic oil genesis: environmental aspect
DOI 10.31087/0016-7894-2019-1-92-96

The paper discusses possibilities of abiotic generation of oil substance, and the effect of this process on environmental situation. Methane is the main hydrocarbon-containing component of fluids and original substance for oil hydrocarbons generation. During the course of deep-seated flows evolution and movement towards the Earth’s surface, methane undergoes polymerization transformations to oil hydrocarbons of various types and molecular weight. These processes occur because of the fact that in addition to methane, depth fluids contain components having catalytic properties necessary for such transformations. Such a component of fluids is, above all, elemental sulphur. As a result of methane polymerization transformations under its catalytic effect, hydrocarbons, asphalt-resin and organosulphur components of oils of various types and molecular weight are formed. As a consequence of the impact of sulphur on a hydrocarbon system, and sulfur and methane entrainment in oil and gas, oil becomes a system that concentrates sulphur. Taking into account the strong greenhouse effect of methane and the poisoning effect of sulphur on biological systems, the involvement of these depth fluid components in the process of oil generation contributes to the formation of a favourable environmental situation on Earth.

 

Key words: oil; composition of depth fluids; sources and generation of oil components; environmental function of oil genesis.

For citation: Lur’e M.A. Hypogenic oil genesis: environmental aspect. Geologiya nefti i gaza = Oil and gas geology. 2019;(1):92–96. DOI: 10.31087/0016-7894-2019-1-92-96.

References

1. Seyful-Mulyukov R.B. Oil and gas formation. Theory and practical aspects. Geologiya nefti i gaza. 2017;(6):89–96.
2. Eigenson A.S. About opposition of two concepts of oil-and-gas formation. Khimiya i tekhnologiya topliv i masel. 1998;(3):3–5.
3. Lur’e M.A. Is the Fischer-Tropsh process possible in a geologic medium? Geochemistry Inernational. 2014;52(12):1084–1086. DOI: 10.7868/S001675251412005X.

4. Eigenson A.S. About quantitative research of the formation of technogenic and natural hydrocarbon systems using methods of mathematical modeling. Khimiya i tekhnologiya topliv i masel. 1990;(12):19–25.
5. Seyful-Mulyukov R.B. Oil and gas: deep nature and its applied importance. Moscow: Torus-press; 2012. 215 p.
6. Chukin G.D., Alatortseva E.I., Leontieva S.A. Origin of oil: a new view. Neftepererabotka i neftekhimiya. 2016;(7):17–22.
7. Bgatov A.V. Biogenic classification of elements. Filosofiya nauki. 1999;(2):80–90.
8. Lur’e M.A., Shmidt F.K. Oil. Discussion of origin. Sulfur- and metal content as genetic characteristics. – Saarbrucken, Germany: Lap Lambert Academic Publishing; 2013. 216 p.
9. Eigenson A.S., Sheikh-Ali D.M. Regularities of the component-fractional and chemical composition of oils. Khimiya i tekhnologiya topliv i masel. 1988;(10):29–34.
10. Shpirt M.Ya., Punanova S.A. Comparative assessment of microelement composition of coals, oils and shales. Khimiya tverdogo topliva. 2007;(5):15–29.
11. Kholodov V.N. Vanadium. Moscow: Science; 1968. 245 p.
12. Kholodov V.N. Sedimentary ore genesis and metalgeny of vanadium. Moscow: Science; 1973. 275 p.
13. Startsev A.N., Kruglyakova O.V., Ruzankin S.F. et al. Peculiarities of low-temperature catalytic decomposition of hydrogen sulfide. Zhurnal fizicheskoi khimii. 2014;88(6):943–956. DOI: 10.7868/S004445371406034X.
14. Khadzhiev S.N., Shpirt M.Ya. Microelements in oils and products of their processing. Moscow: Science; 2012. 222 p.
15. Letnikov F.A. Degassing of Earth as global process of self-organization. Degazatsiya Zemli: geodinamika, geoflyuidy, neft' i gaz : mat-ly mezhdun. konferentsii. Moscow: GEOS; 2002. pp. 6–7.
16. Letnikov F.A. Superdeep fluid systems of Earth and problem of ore genesis. Geologiya rudnykh mestorozhdenii. 2001;43(4):291–307.
17. Kuzmin M.I., Yarmolyuk V.V. Mantle plumes of northeast Asia and their role in formation of endogenous fields. Russian geology and geophysics. 2014;55(2):120–143. DOI: http://dx.doi.org/10.1016/j.rgg.2014.01.002.
18. Yarmolyuk V.V., Kovalenko V.I., Naumov V.B. Flows of volatile components in upper shells of Earth as a reflection of deep geodynamic processes. In: Deep magmatism, its sources and their connection with plume processes. N.V. Vladykin, ed. Irkutsk, Ulan-Ude: SB RAS; 2004. pp. 5–34.
19. Reactions of sulfur with organic compounds. In: M.G. Voronkov, ed. Novosibirsk: Science; 1979. 364 p.
20. Litvinov V.P. Cascade heterocyclization in synthesis of thiophene derivatives and its condensed analogs. Rossiiskii khimicheskii zhurnal. 2005;49(6):11–20.
21. Savchenko V.I., Didenko L.P., Sementsova L.A. A thermodynamic possibility of formation of condensation products upon interaction of methane with hydrogen sulfide. Neftekhimiya. 1998;38(1):68–74.
22. Krylov O.V. Heterogeneous catalysis. Moscow: Akademkniga; 2004. 679 p.
23. Yashchenko I.G., Polishchuk Yu.M. Analysis of spatial distribution of oils and changes of their physical-chemical properties. Geologiya nefti i gaza. 2013;(4):57–64.
24. Salovyanov A.A., Titelmin V.V., Yazev V.A. Gas-chemical processing of associated petroleum gas. In: Associated petroleum gas. Technology of production, strategy of use. Moscow Region: Intellect; 2013. pp. 1–50.
25. Pikovsky Yu.I. Geoecological aspects of the deep concept of oil and gas field formation. Degazatsiya Zemli: geodinamika, geoflyuidy, neft', gaz i ih paragenesy: mat-ly mezhdun. konferentsii. Moscow: GEOS; 2008. pp. 393–394.
26. Lur’e M.A. About the reasons of geochemical differences of oil and gas systems. Geologiya nefti i gaza. 2015;(3):69–75.
27. Lefko A.N. All on fight against aging. Znanie — sila. 2015;(7):94–97.
28. Bazhin N.M. Hydrogen sulfide in nature: prevalence and a circulation. Chemistry for Sustainable Development. 1999;7(4):353–357.
29. Lur’e M.A. Oil genesis as a manifestation of ecological functions of abiotic spheres of Earth. Geoecologiya. 2017;(6):8–14.
30. Janssens J.P., van Langeveld A.D., Moulijn J.A. Characterization of alumina and silica-supported vanadium sulphide catalysts and their performance in hydrotreating reactions. Applied Catalysis A: General. 1999;179(1–2):229–239.

M.A. Lur’e   Scopus

Institute of oil and coal synthesis, Irkutsk state university, Irkutsk, Russia;

miklur@rambler.ru

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