Evgeniya Svetova

Dr. Evgeniya Svetova

Institute of Geology, Karelian Research Center RAS, Puskinskaja, 11, 185610 Petrozavodsk, Russia
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Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 December 2006 in Geotectonics
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ASA. I. Slabunov
A. I. Slabunov
SLS. B. Lobach-Zhuchenko
S. B. Lobach-Zhuchenko
EBE. V. Bibikova
E. V. Bibikova
VBVictor V. Balagansky
Victor V. Balagansky
PSP. Sorjonen-Ward
P. Sorjonen-Ward
VSV. S. Stepanov
V. S. Stepanov
The Archean provinces and lithotectonic complexes of the Baltic (Fennoscandian) Shield are considered. The supracrustal complexes are classified by age: <3.2, 3.10–2.90, 2.90–2.82, 2.82–2.75, and 2.75–2.65 Ga. The data on Archean granitoid complexes and metamorphic events are mentioned briefly, whereas the recently found fragments of the Archean ophiolitic and eclogite-bearing associations are discussed in more detail. The Paleoarchean rocks and sporadic detrital grains of Paleoarchean zircons have been found in the Baltic Shield; however, the relatively large fragments of the continental crust likely began to form only in the Mesoarchean (3.2–3.1 Ga ago), when the first microcontinents, e.g., Vodlozero and Iisalmi, were created. The main body of the continental crust was formed 2.90–2.65 Ga ago. The available information on the Paleoarchean complexes of the Baltic Shield is thus far too scanty for judgment on their formation conditions. The geologic, petrologic, isotopic, and geochronological data on the Meso-and Neoarchean lithotectonic complexes testify to their formation in the geodynamic settings comparable with those known in Phanerozoic: subduction-related (ensialic and ensimatic), collisional, spreading-related, continental rifting, and the setting related to mantle plumes.

2 June 2015 in Proceedings of the Karelian Research Centre of the Russian Academy of Sciences
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Sergei SvetovSergei Svetov
Sergei Svetov
ASAlexandra V. Stepanova
Alexandra V. Stepanova
СЧСветлана Юрьевна Чаженгина
Светлана Юрьевна Чаженгина
ЕСЕвгения Николаевна Светова
Евгения Николаевна Светова
ЗРЗоя Павловна Рыбникова
Зоя Павловна Рыбникова
VKVladimir Kolodey
Vladimir Kolodey
ПРЕЦИЗИОННЫЙ (ICP-MS, LA-ICP-MS) АНАЛИЗ СОСТАВА ГОРНЫХ ПОРОД И МИНЕРАЛОВ: МЕТОДИКА И ОЦЕНКА ТОЧНОСТИ РЕЗУЛЬТАТОВ НА ПРИМЕРЕ РАННЕДОКЕМБРИЙСКИХ МАФИТОВЫХ КОМПЛЕКСОВ

1 January 2006 in Geological Society, London, Memoirs
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Journal Article
Closed access
ASA. I. Slabunov
A. I. Slabunov
SLS. B. Lobach-Zhuchenko
S. B. Lobach-Zhuchenko
EBE. V. Bibikova
E. V. Bibikova
PSP. Sorjonen-Ward
P. Sorjonen-Ward
VBV. V. Balangansky
V. V. Balangansky
VSV. S. Stepanov
V. S. Stepanov
Archaean supracrustal complexes, known in the Fennoscandian (Baltic) Shield, are described and discussed by analysing the time sections 3.1-2.9, 2.9-2.75 and 2.75-2.65 Ga. Data on granitoid complexes, interrelated in time and space, and evidence for Archaean metamorphic events are classified and presented briefly. Fragments of ophiolitic and eclogitic associations have been found in Archaean rocks in the Shield. The first evidence of continental crust in the Shield is from Meso-Archaean time (3.5-3.1 Ga); isolated microcontinents, such as Vodlozero, lisalmi and North Finland, have been identified. New continental crust was mainly generated in the 2.9-2.65 Ga interval. The geodynamic settings in which the continental crust was formed in the Meso-and Neoarchaean included subduction (ensialic and ensimatic), accretion and collisional mechanisms. The continental and oceanic crust were affected by mantle plumes.

22 February 2017 in Proceedings of the Karelian Research Centre of the Russian Academy of Sciences
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ВКВячеслав Степанович Куликов
Вячеслав Степанович Куликов
Sergei SvetovSergei Svetov
Sergei Svetov
ВКВиктория Владимировна Куликова
Виктория Владимировна Куликова
АПАлександр Константинович Полин
Александр Константинович Полин
ВИВасилий Иванович Иващенко
Василий Иванович Иващенко
VIVasily Ivashchenko
Vasily Ivashchenko
ГЕОЛОГИЧЕСКАЯ КАРТА ЮГО-ВОСТОЧНОЙ ФЕННОСКАНДИИ МАСШТАБА 1:750 000: НОВЫЕ ПОДХОДЫ К СОСТАВЛЕНИЮ

1 August 2020 in Gondwana Research
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Journal Article
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AAAndrea Agangi
Andrea Agangi
AHAxel Hofmann
Axel Hofmann
EHErnst Hegner
Ernst Hegner
HXHangqiang Xie
Hangqiang Xie
CTClaudia Teschner
Claudia Teschner
Sergei SvetovSergei Svetov
Sergei Svetov

12 May 2020 in Minerals
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Sergei SvetovSergei Svetov
Sergei Svetov
SCS. Yu. Chazhengina
S. Yu. Chazhengina
ASAlexandra V. Stepanova
Alexandra V. Stepanova
This paper presents an integrated major and trace element data and crystal size distribution analysis for zoned clinopyroxene phenocrysts hosted in variolitic and massive picrobasalts of the Suisaari Formation, Karelian Craton, Eastern Fennoscandian Shield. Clinopyroxenes in variolitic and massive lavas occur as unzoned, reverse, and normally zoned crystal. Oscillatory-zoned clinopyroxenes are only observed in variolitic lavas. The obtained data were examined in order to evaluate the contribution of magmatic processes such as magma mixing, contamination and fractional crystallization to the formation of various zoning patterns of clinopyroxene phenocrysts. Clinopyroxene phenocrysts in both variolitic and massive lavas originate from similar primary melts from a single magmatic source. The obtained data on composition and texture of clinopyroxene phenocrysts together with the crystal size distribution (CSD) analysis suggest that crystallization of the massive lavas mainly involves fractionation in a closed magmatic system, whereas the crystallization of the variolitic lavas is determined by processes in an open magmatic system. The results provide novel information on the evolution of Paleoproterozoic magmatic systems in the Karelian Craton.