Russian Journal of Earth Sciences Russian Journal of Earth Sciences Russian Journal of Earth Sciences 1681-1208 47012 ОРИГИНАЛЬНЫЕ СТАТЬИ ORIGINAL ARTICLES ОРИГИНАЛЬНЫЕ СТАТЬИ Provenance and tectonic settings of accretionary wedge sediments on northeastern Karaginski Island Kamchatka, Russian Far East Provenance and tectonic settings of accretionary wedge sediments on northeastern Karaginski Island Kamchatka, Russian Far East Ledneva G V Ledneva G V Garver J I Garver J I Lederer J Lederer J Hollocher K T Hollocher K T Shapiro M N Shapiro M N Brandon M T Brandon M T Institute of the Lithosphere of Marginal Seas, Moscow, Russia ru Institute of the Lithosphere of Marginal Seas, Moscow, Russia ru Geology Department, Union College, Schenectady, USA ru Geology Department, Union College, Schenectady, USA ru Geology Department, Union College, Schenectady, USA ru Geology Department, Union College, Schenectady, USA ru Geology Department, Union College, Schenectady, USA ru Geology Department, Union College, Schenectady, USA ru Gamburtsev Institute of the Earth Physics, Moscow, Russia ru Gamburtsev Institute of the Earth Physics, Moscow, Russia ru Dept. of Geology and Geophysics, Yale University, New Haven, USA ru Dept. of Geology and Geophysics, Yale University, New Haven, USA ru 6 2 105 132 10 11 2021 https://rjes.ru/en/nauka/article/47012/view

The provenance and tectonic setting of the sediments and rare cobbles from the accretionary wedge on Karaginski Island were examined. This study provides a picture of the nature of the NE Asian paleomargin in the middle Eocene to early Miocene. The trace element geochemistry of shale from the flysch and m#xE9;lange indicates a their common provenance with the quartzofeldspathic and arkosic sandstones, and bderivation of these sediment types from active continental and island arcs with partially dissected basement rocks. Previous studies of the sandstones Shapiro et al., 2000 showed that they dominate in debris whose composition is very similar to those of the felsic extrusive and intrusive rocks in cobbles and boulders embedded in the sediments. Fission-track FT ages from detrital zircon from sandstones, and felsic cobbles show their derivation from sources with several cooling histories in the Late Cretaceous and Early Tertiary. The youngest detrital component probably represents continuous younging population from active volcanism in the source that is nearly the same age of deposition. The felsic cobbles represent the essentially random selection of the older material component. They include three distinct types: asubduction-related low-K tonalites and trondhjemites and their extrusive analogues; bcrustally-derived med-K two-mica leucogranites, and ccrustally-derived high-K biotite leucogranites. The felsic rock cobbles of all types have a narrow range of zircon FT grain ages that indicate cooling in the source in the Late Cretaceous to Early Paleogene. Tonalites and trondhjemites low-K cooled at 53.8 - 3.5/+3.8Ma and 78.5 - 6.7/+7.6Ma. The rhyolites med-K cooled at 70.1 - 3.7/+3.9Ma. The biotite leucogranites high-K cooled between 59.1Ma - 3.3/+3.9 and 58.6 - 3.2/+3.3Ma two clasts. The Late Cretaceous cooling ages 70-78Ma probably reflect original magmatic activity whereas the Early Eocene cooling ages may indicate timing of exhumation. The chemical and age data obtained on the felsic cobbles suggest derivation of the accretionary wedge sediments from a source formed either by: asubduction in the Late Cretaceous and collision/exhumation in the Early Paleogene; or by bcontinuous subduction. The closest petrochemical and age intrusive and extrusive analogues of the felsic cobbles occur only locally in the Olyutorsky Peninsula subterrane. Nonetheless, this structure is too small and too remote from Karaginski Island to supply enough material for the middle Eocene-early Miocene accretionary wedge sediments. We speculate that the structure of the Olyutorsky Peninsula subterrane might be extended in the shelf where several highs exist.

The provenance and tectonic setting of the sediments and rare cobbles from the accretionary wedge on Karaginski Island were examined. This study provides a picture of the nature of the NE Asian paleomargin in the middle Eocene to early Miocene. The trace element geochemistry of shale from the flysch and m#xE9;lange indicates a their common provenance with the quartzofeldspathic and arkosic sandstones, and bderivation of these sediment types from active continental and island arcs with partially dissected basement rocks. Previous studies of the sandstones Shapiro et al., 2000 showed that they dominate in debris whose composition is very similar to those of the felsic extrusive and intrusive rocks in cobbles and boulders embedded in the sediments. Fission-track FT ages from detrital zircon from sandstones, and felsic cobbles show their derivation from sources with several cooling histories in the Late Cretaceous and Early Tertiary. The youngest detrital component probably represents continuous younging population from active volcanism in the source that is nearly the same age of deposition. The felsic cobbles represent the essentially random selection of the older material component. They include three distinct types: asubduction-related low-K tonalites and trondhjemites and their extrusive analogues; bcrustally-derived med-K two-mica leucogranites, and ccrustally-derived high-K biotite leucogranites. The felsic rock cobbles of all types have a narrow range of zircon FT grain ages that indicate cooling in the source in the Late Cretaceous to Early Paleogene. Tonalites and trondhjemites low-K cooled at 53.8 - 3.5/+3.8Ma and 78.5 - 6.7/+7.6Ma. The rhyolites med-K cooled at 70.1 - 3.7/+3.9Ma. The biotite leucogranites high-K cooled between 59.1Ma - 3.3/+3.9 and 58.6 - 3.2/+3.3Ma two clasts. The Late Cretaceous cooling ages 70-78Ma probably reflect original magmatic activity whereas the Early Eocene cooling ages may indicate timing of exhumation. The chemical and age data obtained on the felsic cobbles suggest derivation of the accretionary wedge sediments from a source formed either by: asubduction in the Late Cretaceous and collision/exhumation in the Early Paleogene; or by bcontinuous subduction. The closest petrochemical and age intrusive and extrusive analogues of the felsic cobbles occur only locally in the Olyutorsky Peninsula subterrane. Nonetheless, this structure is too small and too remote from Karaginski Island to supply enough material for the middle Eocene-early Miocene accretionary wedge sediments. We speculate that the structure of the Olyutorsky Peninsula subterrane might be extended in the shelf where several highs exist.

 Shale felsic clasts fission-track dating provenance accretionary wedge Kamchatka. Shale felsic clasts fission-track dating provenance accretionary wedge Kamchatka.

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