ПРО СТРУКТУРУ ЧОРНОМОРСЬКОГО БАСЕЙНУ ЯК ІЄРАРХІЧНУ СИСТЕМУ МЕГАПУЛ-АПАРТІВ

Автор(и)

  • B.A. Zankevich
  • V.V. Pokalyuk

DOI:

https://doi.org/10.30836/igs.0375-7773.2020.216036

Ключові слова:

Чорноморський басейн, тектонолінеаменти, pull-apart, планетарна розломна мережа, розломно-блокова тектоніка, зсувна тектоніка

Анотація

У статті наведено геолого-структурну аргументацію морфогенезу западин і прогинів Чорного моря як різнорангових пул-апартів області перетину трансреґіональних ПЗ і СПС тектонолінеаментів. Ансамбль структур Чорного моря (глибоководних западин, розломних зон, периферійних прогинів і підняттів) представлений як похідне істотно зсувних деформацій і малоамплітудних дислокацій зон трансреґіональних тектонолінеаментів. Структурні малюнки, відомі для моделей простого зсуву, виявлено в зонах динамічного впливу розломів, що обмежують чорноморські западини. Структурні позиції западин показано на тлі перетину розломних зон у системах північно-західних і північно-східних тектонолінеаментів як регіональних елементів регматичної глобальної мережі. Аналіз впорядкованих сукупностей розломно-блокових структур у плані басейну за аналогією з моделями (mega)pull-apart виявляє ієрархічні, (пара)генетичні і успадковані зв’язки у морфогенезі западин, прогинів і підняттів Чорного моря. Особливості будови (мега) пул-апартових глибоководних западин Чорного моря й позиції структур другого рангу, периферійних прогинів (і валів) акваторії опосередковано виражають «пілотний» і контролівний вплив регмагенезу в «рамі» пересічних ПЗ і ПС зон тектонолінеаментів і складників їхніх транскурентних глибинних розломів-зсувів у режимі транстенсії. (При)зсувні позиції розломно-блокових структур басейну, локальних геологічних тіл, ареалів вулкано-плутонітів, «продуктів» тектономагматичних активізацій розкривають закономірну регуляторну дію ротаційних чинників істотно зсувної малоамплітудної тектоніки земної кори, а також важливу роль зональних додаткових критеріїв прогнозування потенційних зон вуглеводнів і ділянок з тектонофізичними умовами розтягування. 

 

Посилання

Artyushkov E.V. 2007. The formation of deep sedimentary basins due to phase transitions in the lower crust. South Caspian Depression. Fundamental problems of geotectonics. Materials XL Tectonic. conference. Vol. 1. GEOS, Moscow, p. 21–24. – in Russian

Artyushkov E.V. 1993. Physical tectonics. Nauka, Moscow, 456 p. – in Russian

Artyushkov E.V., Schlesinger A.E., Yanshin A.L. 1980. The mechanism of formation of deep-sea basins of the Mediterranean belt. Nauka, Moscow, p. 10–21. – in Russian

Arkhangelsky A.D., Strakhov N.M. 1938. Geological structure and history of the Black Sea. Proceedings of the USSR Academy of Sciences, Moscow-Saint Petersburg, 200 p. – in Russian

Afanasenkov A.P., Nikishin A.M., Obukhov A.N. 2007. Geological structure and hydrocarbon potential of the East Black Sea region. Nauchnyy mir, Moscow, 172 p. – in Russian

Belousov V.V. 1962. The main issues of geotectonics. Gosgeoltekhizdat, Moscow, 608 p. – in Russian

Bush V.A. 1983. Transcontinental lineament systems of Eurasia. Geotectonics. No. 3, p. 15–31. – in Russian

Bush V.A. 1983. Transcontinental lineaments and the problems of the mobilizm. Geotectonics. No. 4, p. 14–25. – in Russian

Vikulin A.V. 2016. Plate tectonics and planet rotation. Tectonophysics and current issues of Earth sciences. Mat. doc. All-Russian conferences. Vol. 2. OIFZ AN of the Russian Federation, Moscow, p. 442–450. – in Russian

Zankevich B.A. 2017. An analysis of the reghmatic fault networks of the Precambrian foundation of the Ukrainian shield. Tectonics and stratigraphy. Iss. 44, p. 30–43. – in Russian

Zankevich B.A. 2002. Structural-tectonophysical ore-controlling factors of the Krivoy Rog-Kremenchug iron ore zone of Ukrainian shield. Geochemistry and ecology. Iss. 5/6. ІGNS NAS of Ukraine, Kiev, p. 265–276. – in Russian

Zankevich B.A. 2003. Tectonic factors and new criteria for gold mineralization of a number of Prydnіprov’ya greenstone structures. Collection of scientific papers: Region-2003: Strategy for optimal development. Kharkiv, p. 236–238. – in Russian

Zankevich B.A., Velikanov Yu.F., Velikanova O.Yu. and others. 2005. Granitoids of the frame of Krivbass. 1. The geological and structural position of the granites of the East Annovo strip. Geological and Mineralogical News of KTU. No. 2 (14). Kriviy Rig, p. 48–57. – in Russian

Zankevich B.A., Melnichenko T.A., Shafranskaya N.V. 2009. Inheritance of structural plans of the NW shelf of the Black Sea. Geology and mineral resources of the world ocean. No. 1, p. 52–62. – in Russian

Zankevich B.A., Trohimenko G.L. 2007. On the geodynamics of the deflection of Sorokin, a suture zone at the junction of the East Black Sea and Scythian plates. Geology and mineral resources of the world ocean. No. 1, p. 35–43. – in Russian

Zankevich B.A., Trokhimenko G.L. 2007. Folds of the Sorokin deflection as a geodynamic indicator of the shear component of tectonic movements. Collection of scientific papers: From geology to biospherology. «Obrіi», Kiev, p. 74–76. – in Russian

Zankevich B.A., Shafranskaya N.V. 2010. Geodynamic model of the gas evolution zone of the northwestern part of the Black Sea. Earth degassing: geotectonics, geodynamics, geofluids; oil and gas; hydrocarbons and life. Conference materials to the 100-th anniversary of birth P.N. Kropotkin. Moscow, p. 171–174. – in Russian

Zankevich B.A., Shafranskaya N.V. 2009. The tectonic position of the gas flare zone of the northwestern Black Sea. Geology and mineral resources of the world ocean. No. 3, p. 35–54. – in Russian

Zankevich B.A., Tokovenko V.S., Trohimenko G.L., Shafranska N.V. 2007. The structure and prospects of hydrocarbons of the Andrusov rise of the Black Sea basin. Geology and mineral resources of the world ocean. No. 4, p. 35–43. – in Ukrainian

Zankevich B.A., Tokovenko V.S., Shafranskaya N.V. 2008. Tectonic position of the Foros ledge of the continental slope of the Black Sea. Geology and mineral resources of the world ocean. No. 1, p. 95–105. – in Ukrainian

Zankevich B.A., Shafranskaya N.V. 2012. Patterns of lateral disposition of fault zones of the Ukrainian shield: analysis of cartographic data. Tectonics and stratigraphy. Iss. 39, p. 9–20. – in Russian

Zankevich B.A., Shafranskaya N.V. 2011. Structural and tectonophysical factors and criteria of prospects of iron ore sections of Northern Kryvyi Rih. Scientific principles of geological and economic assessment of the mineral resource base of Ukraine and the world: abstracts intern. conf. Nika-Center, Kiev, p. 24–26. – in Ukrainian

Ivanov V.E., Lomakin I.E. 2014. Geological position and tectonics of the Lomonosov paleovolcanic massif and Foros ledge. Geology and mineral resources of the world ocean. No. 2, p. 35–51. – in Russian

Kopp M.L., Rastzvetaev L.M. 1976. About lineaments revealed by satellite images of the eastern part of the Alpine belt. News of higher educational institutions. Geology and exploration. No. 11, p. 26–35. – in Russian

Krasnoshchok A.Ya. 1976. Foundation fracture systems and their relationship with sedimentary cover structures within the Northern Black Sea Coast. Geol. magazine. Vol. 36. No. 5, p. 10–17. – in Ukrainian

Lear Yu.V., Shakin S.S., Kisterov K.V. 1982. Features of the development of ore-bearing fracture structures. Geology of ore deposits. No. 1, p. 3–30. – in Russian

Lomakin I.E., Pokalyuk V.V., Kochelab V.V., Shafranskaya N.V., Shuraev I.N. 2016. Consistent patterns of the spatial orientation of topolineament systems in the nothern preblack sea region. Geology and Mineral Resources of World Ocean. No. 4, p. 86–102. – in Russian

Lomakin I.E., Pokalyuk V.V., Shuraev S.N., Shpyrko S.G. 2017. Tectonolineament zones of east-north east trending and selected problems of mediterranean tectonics. Geology and Mineral Resources of World Ocean. No. 2, p. 68–76. – in Russian

Muratov M.V. 1972. The history of the formation of the deep sea basin of the Black Sea in comparison with the hollows of the Mediterranean Sea. Geotectonics. No. 5, p. 22–30. – in Russian

Nadai A. 1954. Plasticity and destruction of solids. Vol.1. «Mir», Moscow, 547 p. 1969.Vol. 2. 863 p. – in Russian

Pokalyuk V.V., Lomakin I.E., Shafranskaya N.V. 2017. The Black Sea basin as a combination of pull-apart structures in the system of the Mediterranean-Caspian belt. Tectonics of modern and ancient oceans and their outskirts. Mat. XLIX Tectonic conference. V. 2. GEOS, Moscow, p. 69–73. – in Russian

Pokalyuk V.V., Lomakin I.E., Shuraev I.N. 2018. Tectonolineament zones of east-north-east trending as constituent element of rhegmatogenic fault network of the Balkan-Black sea region. Ukrainian Journal of Remote Sensing. No. 18, p. 40–52. – in Russian

Rastzvetaev L.M. 1987. Paragenetic method of structural analysis of disjunctive tectonic disturbances. Problems of structural geology and physics of tectonic processes. Part II. Publishing. GIN AS SSSR, Moscow, p. 173–235. – in Russian

Rastzvetaev, L.M., Tveritinova T.Yu. 2016. Earth´s rotation and planetary fractures, compression and extension zones. Mat. Fourth Tectonophysis. conf. Sec. 5. General theoretical issues of tectonophysics and problems of geodynamics. Vol. 2. IFZ RAS, Moscow, p. 545–552. – in Russian

Smirnova M.N. 2007. Features of deformations in the real environment of the Black Sea. Fundamental problems of geotectonics. Materials XL Tectonic. conference . Abstract. doc. GIN RAS, Moscow, p. 215–218. – in Russian

Sologub V.B. 1986. Lithosphere of Ukraine. Nauk. Dumka, Kiev, 184 p. – in Russian

Starostenko V.I., Pashkevich I.K., Makarenko I.B., and others. 2005. Fault tectonics of the consolidated crust of the northwestern shelf of the Black Sea. Geofizicheskiy Zhurnal. Vol. 27. No. 2, p. 195–207. – in Russian

Starostenko V.I. Makarenko I.B., Rusakov O.M., Pashkevich I.K., Kutas R.I., Legostaeva O.V. 2010. Geophysical heterogeneity of the lithosphere of the megabasin of the Black Sea. Geofizicheskiy Zhurnal Vol. 32. No. 5, p. 3–21. – in Russian

Stoyanov S.S. 1977. The mechanism of formation of discontinuous zones. Nedra, Moscow, 144 p. – in Russian

Subbotin S.I. 1965. The structure of the earth's crust of the Black Sea basin, the reasons and the scheme of its formation. Geofizicheskiy sbornik IG Academy of Sciences of the Ukrainian SSR. The structure of the earth's crust and the physical properties of rocks. Nauk. Dumka, Kiev, p. 3–17. – in Russian

Tevelev A.V. 2005. Shear tectonics. Publishing House of Moscow State University, 254 p. – in Russian

Tugolesov D.A., Gorshkov A.S., Meissner L.B., and others. 1985. Tectonics of the Meso-Cenozoic sediments of the Black Sea basin. Nedra, Moscow, 215 p. – in Russian

Tyapkin K.F., Dovbnich. M.M. 2009. New rotational hypothesis of structure formation and its geological and mathematical justification. Knowledge, Donetsk, 342 p. – in Russian

44. Filatova N.I. 2008. The role of sync-shear basins in the system of marginal seas of the west of the Pacific Ocean. General and regional problems of tectonics and geodynamics. Mat. XLI Tectonic conference. Vol. 2. GEOS, Moscow, p. 370–374. – in Russian

Frolov V.T., Frolova T.I. 2011. The origin of the Pacific. 2nd ed. MAKS Press, Moscow, 52.p. – in Russian

Chekunov A.V. 1987. Problems of the Black Sea Depression. Geofizicheskiy Zhurnal. No. 4, p. 3–25. – in Russian

Schlesinger A.V. 1981. The structure of the sedimentary cover of the Black Sea basin. Problems of tectonics of the earth's crust. Nauka, Moscow, p. 237–262. – in Russian

Yanshin A.L., Basenyants Sh.A., Pilipenko A.I., Schlesinger A.E. 1980. New data on the time of formation of the deep-sea Black Sea basin. Doc. USSR Academy of Sciences. Vol. 252. No. 1, p. 223–227. – in Russian

Atmaoui N. 2005. Development of pull-apart basins amd assosiated structures by the ridel shear mechanisn: insight from scaled clay analogue models. Bochum, p. 94. – in English

Aydin A., Nur A. 1985. The types and role of stepovers in strict-slipe tectonics. Soc. Econom. Paleontol. and Miner. Spec. Publ. Vol. 37, p. 35–44. – in English

Burchfiel B.C., and Stewart J.H. 1966. «Pull-apart» origin of the central segment of Death Valley, California. Geological Society of America Bulletin. Vol. 77, p. 439–442. – in English

Courtillot V., Tapponier P., Varet Y. 1974. Suface features associated wich transform fault: compration between observed exaples and anexperimental model. Tectonophysics. Vol. 24. No. 4, p. 317–329. – in English

53. Flerit F., Armijo R., King G. C. P., Meyer B. and Barka A. 2003. Slip partitioning in the Sea of Marmara pull-apart determined from GPS velocity vectors. Geophys. J. Int. 154, p. 1–7. – in English

Gradinaru E. 1988. Jurassic sedimentary rocks and bimodal volcanics of the Cirjelari-Camena outcrop belt: evidence for a transtensile regime of the Peceneaga-Camena fault. St. cerc. geol., geofiz., geogr. Bucuresti, Vol. 33, p. 97–121. – in English

Gürbüz A. 2010. Geometric characteristics of pull-apart basins. LITHOSPHERE. Vol. 2. No. 3, p. 199-206. – in English

Lallemand S, Laurent J. 1985/86. Japan Sea: a pull-apart basin? Earth and Planetary Science Letters, 76, p. 375–389. – in English

Mann P., Hempton M.R., Bradley D.C., and Burke K. 1983. Development of pull-apart basins. The Journal of Geology. Vol. 91, p. 529–554. – in English

Nikishin A. M., Okay A., Tüysüz O., Demirer A., Wannier M. et al. 2014. The Black Sea basins structure and history: New model based on new deep penetration regional seismic data. Part 2: Tectonic history and paleogeography. Marine and Petroleum Geology. Vol. 30, p. 1–15. – in English

Price N.J. 1966. Fault and joint developmentin brittle and semi-brittle rock. Pergamon Press, Oxford, 186 p. – in English

Robinson A.G. (Ed.). 1997. Regional and petroleum geology of the Black Sea and surrounding region. Memoir 68. American Association of Petroleum Geologists, 385 p. – in English

Rusakov O.M., Pashkevich I.K. 2017.The decisive role of the crystalline crust faults in the Black Sea opening. Geofizicheskiy Zhurnal. Vol. 39. No. 1, p. 3–16. – in English

Schreurs G., Colletta B. 1998. Analogue modelling of faulting in zones of continental transpression and transtension. In: Holdsworth, R.E., Strachan, R.A., Dewey, J.F. (Eds.). Continental Transpressional and Transtensional Tectonics. Geological Society of London Special Publication. 135, p. 59–79. – in English

Sugan M., Wu J.E.L., McClay K. 2014. 3d analogue modelling of transtensional pull-apart basins: comparison with the Cinarik basin, Sea of Marmara, Turkey. Boll. di Geofisica Teorica ed Applicata. Vol. 55. No. 4, p. 699–716. – in English

##submission.downloads##

Опубліковано

2020-02-13

Номер

Розділ

ТЕКТОНІКА