Preview

Geodynamics & Tectonophysics

Advanced search

COMPARATIVE ANALYSIS OF NEOGEODYNAMICS OF THE BALTIC SYNECLISE AND THE NORTHERN SLOPE OF THE VORONEZH ANTECLISE A

https://doi.org/10.5800/GT-2021-12-4-0565

Abstract

The paper presents the results of comparative neogeodynamic analysis of the Baltic syneclise and northern Voronezh anteclise based on structural-geomorphological interpretation, digital elevation model (DEM) processing procedure using LESSA program [Zlatopolsky, 2011], seismic analysis, and computer geodynamic modeling. Both regions are seismically active areas of the East European Platform. The automated DEM analysis showed that they are dominated by NW-striking lineaments oriented across the strike of the neoextension axis. Computational neogeodynamic models imply that the areas under consideration develop in shear environment, with the compression axis oriented northwest. Another important result of modeling is numerical correlation between earthquake energy, interpolated over the Baltic syneclise, and the probability of occurrence of ruptures: the Pearson correlation coefficient is 0.58 for the sedimentary cover and 0.42 for the basement. For the northern Voronezh anteclise, a correlation was found between the epicentral density of earthquakes and "Fracture regions" parameter, with reference to which there were distinguished the areas with the probable occurrence of new short-extension ruptures (the Pearson correlation coefficient is 0.41). This parameter is informative for contouring seismically active parts since the areas with probable occurrence of new ruptures, occupying 39 % of the northern Voronezh anteclise, account for 71 % of earthquake epicenters. Structuralgeomorphological interpretation yielded a high degree of correlation between relief and active faults identified as "weak" zones to which the earthquake epicenters are largely confined. Therefore, both regions considered are characterized by high sedimentary-cover seismic activity, develop in shear stress field, with the stress axis oriented northwest, and have similar orientations of linear elements of relief and "weak" zones.

The analysis of the earthquake recurrence curves shows considerable differences between seismic regimes of the northern Voronezh anteclise and the Baltic syneclise, and those between the sedimentary-cover and basement seismicity of the latter. These differences may be due the fact that the stressed state of the Voronezh anteclise is affected by active structures of the Urals and Caucasus, and that the upwarping Fennoscandian shield is largely responsible for neodeformations of the Baltic syneclise. Practical significance of the study is concerned with the identification of earthquake source zones.

 

About the Authors

A. O. Agibalov
Schmidt Institute of Physics of the Earth, Russian Academy of Sciences
Russian Federation

10-1 Bolshaya Gruzinskaya St, Moscow 123242



V. A. Zaitsev
Lomonosov Moscow State University
Russian Federation

1 Leninskie Gory, Moscow 119991



A. A. Sentsov
Schmidt Institute of Physics of the Earth, Russian Academy of Sciences
Russian Federation

Alexey A. Sentsov

10-1 Bolshaya Gruzinskaya St, Moscow 123242



References

1. Agibalov A.O., Zaytsev V.A., Sentsov A.A., Devyatkina A.S., 2017. Assessment of the Influence of Modern Crustal Movements and the Recently Activated Precambrian Structural Plan on the Relief of the Lake Ladoga Region (The Southeastern Baltic Shield). Geodynamics & Tectonophysics 8 (4), 791–807 (in Russian) https://doi.org/10.5800/GT-2017-8-4-0317.

2. Analysis Package Reservoir Modelling System (RMS), 2012. User Guide. Available from: www.geodisaster.ru/index.php?page=uchebnye-posobiya-2 (Last Accessed December 1, 2019).

3. Efremenko M.A., 2011. The Present-Day Geodynamically Active Zones of the Voronezh Crystalline Massif from the Geological, Geophysical and Seismogeological Data. Brief PhD Thesis (Candidate of Geology and Mineralogy). Moscow, 23 p. (in Russian)

4. Ezhova I.T., Efremenko M.A., Tregub A.I., 2010. Seismic Activity and Neotectonics of the Voronezh Crystalline Massif. Proceedings of Voronezh State University. Series: Geology 1, 229–232 (in Russian)

5. Garetsky R.G., Aizberg R.E., Karabanov A.K., Palienko V.P., Sliaupa A.I., 1999. Neotectonics and Neogeodynamics of Central Europe. Geotectonics 33 (5), 343–352.

6. Garetsky R.G., Nesmeyanov S.A. (Eds), 2009. Seismotectonics of Plate-Ancient Platforms Glaciated During the Quaternary. Kniga i Biznes, Moscow, 288 p. (in Russian)

7. Gutenberg B., Richter C.F., 1956. Earthquake Magnitude, Intensity, Energy and Acceleration (Second Paper). Bulletin of the Seismological Society of America 46 (2), 105–145. https://doi.org/10.1785/BSSA0460020105.

8. Guterch В., Levandowska-Marciniak Н., 2002. Seismicity and Seismic Hazard in Poland. Folia Quanternaria 73, 85–99.

9. Ivanov S.N., Ivanov K.S., 2018. Rheological Model of Earth’s Crust (Model of Third Generation). Lithosphere 18 (4), 500–519 (in Russian) [Иванов С.Н., Иванов К.С. Реологическая модель строения земной коры (модель третьего поколения) // Литосфера. 2018. Т. 18. № 4. С. 500–519. https://doi.org/10.24930/1681-9004-2018-18-4-500-519.

10. Jubitz K.-B., 1983. Tectonic Map of South-West Border of the East European Platform. Scale 1: 1 500 000. Potsdam, Germany.

11. Keiding M., Kreemer C., Lindholm C.D., Gradmann S., Olesen O., Kierulf H.P., 2015. Comparison of Strain Rates and Seismicity for Fennoscandia: Depth Dependency of Deformation from Glacial Isostatic Adjustment. Geophysical Journal International 202 (2), 1021–1028. https://doi.org/10.1093/gji/ggv207.

12. King G.C.P., Cocco M., 2001. Fault Interaction by Elastic Stress Changes: New Clues from Earthquake Sequences. Advances in Geophysics 44, 1–38. https://doi.org/10.1016/S0065-2687(00)80006-0.

13. Kopp M.L., 2000. The Recent Deformations of the Scythian and Southern East European Platforms as a Result of Pressure form the Arabian Plate. Geotectonics 34, 106–120.

14. Kopp M.L., 2004. Mobilistic Neotectonics of the Platforms of the Southeastern Europe. Proceedings GIN RAS. Iss. 552. Nauka, Moscow, 340 p. (in Russian)

15. Kostenko N.P., 1999. Geomorphology. MSU Publishing House, Moscow, 379 p. (in Russian)

16. Levkov E.A., Karabanov A.K., 1994. Neotectonics of Belarus. Litasfera 1, 119-126 (in Russian)

17. Lutikov A.I., Yunga S.L., Koff G.L., Guter B., 2005. Information Bases and Premises for Refining the Initial Seismicity in the South Baltic Region. In: Applied Geoecology, Emergencies, Land Cadaster and Monitoring. Vol. 6. Moscow, p. 106–111 (in Russian)

18. Makarov V.I., 1996. Regional Neogeodynamics of the Platform Areas in Relation to Their Seismic Activity Assessment. Interior of Povolzhye and Pricaspian Region 13, 53–60 (in Russian)

19. Makarova N.V., Makeev V.M., Dorozhko A.L., Sukhanova T.V., Korobova I.V., 2016. East European Craton Geodynamic Systems and Geodynamic Active Zones. Bulletin of Moscow Society of Naturalists. Geological Series 91 (4–5), 9–25 (in Russian)

20. Makeev V.M., 2015. Structural-Geodynamic Conditions for Stability of Extremely Hazardous and Technically Complex Objects on Ancient Platforms. Brief PhD Thesis (Doctor of Geology and Mineralogy). Moscow, 50 p. (in Russian)

21. Mardia K., 1978. Statistics of Directional Data. Nauka, Moscow, 240 p. (in Russian)

22. Nadezhka L.I., Pivovarov S.P., Efremenko M.A., Semenov A.E., 2010. About Earthquakes on the Voronezh Crystalline Massif. Proceedings of Voronezh State University. Series: Geology 1, 233–242 (in Russian)

23. New Catalog of Strong Earthquakes in the USSR from Ancient Times to 1975, 1977. Nauka, Moscow, 536 p. (in Russian)

24. Nikonov A.A., 1977. Holocene and Contemporary Crustal Movements. Nauka, Moscow, 240 p. (in Russian)

25. Nikonov A.A., 2008. Seismicity Pattern and Thermal Anomalies in the Southern Baltic Region before and during the Kaliningrad Earthquakes of 2004. Izvestiya, Physics of the Solid Earth 44, 915–926. https://doi.org/10.1134/S1069351308110050.

26. Panina L.V., 2019. Neostructural Forms and Relief of the Earth. Pero, Moscow, 115 p. (in Russian)

27. Panina L.V., Zaitsev V.A., Agibalov A.O., Manuilova E.A., Bardishev G.P., 2021. Main Features of the Latest Geodynamics of the North-West and Central Caucasus. Moscow University Geology Bulletin 1, 3–14 (in Russian)

28. Panina L.V., Zaitsev V.A., Manuilova E.A., Agibalov A.O., Sentsov A.A., 2017. Neotectonics of the East European Platform as a Reflection of Basement Deformations. In: Current Problems Dynamic Geology in Studying the Platform Deformations. Materials of the II Scientific Conference Dedicated to the 110th Anniversary of the Birth of N.I. Nikolaeva and A.F. Yakusheva. Pero, Moscow, p. 22–26 (in Russian)

29. Raskatov G.I., 1969. Geomorphology and Neotectonics of the Voronezh Anteclise Area. Voronezh State University Publishing House, Voronezh, 164 p. (in Russian)

30. Rogozhin E.A., 2012. An Outline of the Regional Seismotectonics. IPE RAS Publishing House, Moscow, 340 p. (in Russian)

31. Rogozhin E.A., Ovsyuchenko A.N., Gorbatikov A.V., Lutikov A.I., 2014a. Detailed Seismic Hazard Assessment for the City of Kaliningrad. Earthquake Engineering. Constructions Safety 4, 19–27 (in Russian)

32. Rogozhin E.A., Ovsyuchenko A.N., Gorbatikov A.V., Lutikov A.I., Novikov S.S., Marahanov A.V., Stepanova M.Yu., Andreeva N.V., Lar’kov A.S., 2014b. Detailed Seismic Hazard Assessment of the Kaliningrad Territory and the Tectonic Position of the Earthquakes Occurred in 2004. Engineering Survey 12, 26–38 (in Russian)

33. Rogozhin E.A., Ovsyuchenko A.N., Novikov S.S., Marahanov A.V., 2010. Seismotectonic Position of the September 21, 2004 Kaliningrad Earthquakes with Мw=4.6 and 4.8, I0=6 и 6–7 (Western Russia). Earthquakes of North Eurasia in 2004. Geophysical Survey of RAS, Obninsk, p. 364–369 (in Russian)

34. Rudenko M.V., Ryazheva T.I., 2004. New Bathymetric Chart of the Baltic Sea. Oceanology 44 (3), 445–448.

35. Seismic Catalogues and Bulletin FRS GS RAS, 2020. Available from: http://www.ceme.gsras.ru/cgi-bin/new/catalog.pl (Last Accessed September 5, 2020).

36. Sentsov A.A., 2019. Recent Geodynamics and Fennoscandian Shield Area Source Zones Identified by Computer Modeling. In: Tectonic Problems of Continents and Oceans. Proceedings of the LI Tectonic Conference (January 29 – February 2, 2019). Vol. 2. GEOS, Moscow, p. 288–233 (in Russian)

37. Sentsov A.A., Agibalov A.O., 2021. Determination of Seismic Generation Zones of Fennoscandia According to Data of Analysis of Seismicity and Computer Geodynamic Modelling. Moscow University Geology Bulletin 1, 15–22 (in Russian)

38. Sharov N.V., Malovchinko A.A., Shukin Yu.K. (Eds), 2007. Earthquakes and Microseismicity in Relation to Problems of Recent Geodynamics of the East European Platform. Book I. Karelian Research Centre of RAS, Petrozavodsk, 381 p. (in Russian)

39. Shik S.M., Borisov B.A., Zarrina E.P., 2004. A Project of the Regional Stratigraphic Scheme of the Pleistocene of the European Russia. Bulletin of the Commission for Study of the Quaternary 65, 102–114 (in Russian)

40. Sim L., Bryatseva G., Karabanov A., Aizberg R.Y., 1995. The Neotectonic Stress of Belarus and the Baltic Countries. Technika Poszukiwań Geologicznych. Geotermia, Zrównoważony Rozwój 34 (3), 53–57.

41. Sokolov S.A., 2013. Structural-Geomorphological Framework and Neotectonic Zoning of the Voronezh Crystalline Massif Area. Brief PhD Thesis (Candidate of Geology and Mineralogy). Moscow, 24 p. (in Russian)

42. State Geological Map of the Russian Federation, 2015. Central European Series. Scale 1:1000000. Sheet N-37 (Moscow). Explanatory Note. VSEGEI Publishing House, Saint Petersburg, 462 p. (in Russian)

43. Storcheus A.V., 2008. Notes on the Procedure for Calculating Earthquake and Explosion Seismic Energies. In: Proceedings of the Conference Dedicated to Volcanologists Day (March 27–29, 2008). Institute of Volcanology and Seismology FEB RAS, Petropavlovsk-Kamchatsky, p. 274–281 (in Russian)

44. Storcheus A.V., 2011. Calculating the Seismic Energy of Earthquakes and Explosions. Journal of Volcanology and Seismology 5 (5), 341–350. https://doi.org/10.1134/S0742046311050071.

45. Tregub А.I., 2001. Neotectonic Structure and Stress Fields of the Voronezh Crystalline Massif Territory. Proceedings of Voronezh State University. Series: Geology 11, 33–46 (in Russian)

46. Tregub А.I., 2005. Neotectonics of the Voronezh Crystalline Massif Area. PhD Thesis (Doctor of Geology and Mineralogy). Voronezh, 329 p. (in Russian)

47. Tregub A.I., Tregub S.A., Shevtsov D.E., 2015. Neotectonics of the Shumilinsko-Novokhopersk Zone of Faults (Voronezh Crystalline Massif). Proceedings of Voronezh State University. Series: Geology 4, 171–173 (in Russian)

48. USGS Earthquake Hazards Program, 2019. Available from: https://earthquake.usgs.gov/ (Last Accessed December 1, 2019).

49. Uski M., Pelkomen E., 2004. Earthquakes in Northern Europe. Report R. Institute Seismology, University Helsinki, Sweden, 206 p.

50. Yudakhin F.N., Shchukin Yu.K., Makarov V.I., 2003. Deep Structure and Recent Geodynamic Processes in the Lithosphere of the East European Platform. Publishing House of the Ural Branch of RAS, Ekaterinburg, 299 p. (in Russian)

51. Zaitsev V.A., Panina L.V., Manuilova E.A., Sentsov A.A., 2016. Modern Methods and Results of Neotectonic Research in the Central Part of the East European Platform. In: Current Problems of Dynamic Geology in Studies of the Platform Areas. Proceedings of the All-Russian Scientific Conference (May 24–26, 2016). Pero, Moscow, p. 49–54 (in Russian)

52. Zaitsev V.A., Panina L.V., Sentsov A.A., 2017. Structural-Geomorphological Studies of the Central Part of the Russian Platform. In: Tectonics of the Present-Day and Ancient Oceans and Ocean Margins. Proceedings of the XLIX Tectonic Conference Dedicated to the 100th Anniversary of Academician Yu.M. Pushcharovsky (January 31 – February 4, 2017). Vol. 2. GEOS, Moscow, p. 177–180 (in Russian)

53. Zakashansky M.S., 1963. On Oil Prospecting in the Kaliningrad Region. Oil and Gas Geology 2, 42–44 (in Russian)

54. Zakharov V.S., Smirnov V.B., 2016. Physics of the Earth. INFRA-M. Moscow, 328 p. (in Russian)

55. Zlatopolsky A.A., 2011. New LESSA Technology Resources and Digital Terrain Map Analysis. Methodology. Current Problems in Remote Sensing of the Earth from Space 8 (3), 38–46 (in Russian)

56. Zykov D.S., 2004. Structural-Kinematic Model of Neotectonic Deformations in the South of the East European Platform. Bulletin of Moscow Society of Naturalists. Geological Series 79 (4), 11–17 (in Russian)

57. Zykov D.S., Poleshchuk A.V., 2016. Interaction of Geodynamic Systems of East European Platform in Recent Times. Bulletin of Moscow Society of Naturalists. Geological Series 91 (1), 3–14 (in Russian)


Review

For citations:


Agibalov A.O., Zaitsev V.A., Sentsov A.A. COMPARATIVE ANALYSIS OF NEOGEODYNAMICS OF THE BALTIC SYNECLISE AND THE NORTHERN SLOPE OF THE VORONEZH ANTECLISE A. Geodynamics & Tectonophysics. 2021;12(4):951-968. (In Russ.) https://doi.org/10.5800/GT-2021-12-4-0565

Views: 567


Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 2078-502X (Online)