Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea: Paleoceanographic implications

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Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea : Paleoceanographic implications. / Dubicka, Zofia; Wierny, Weronika; Bojanowski, Maciej J.; Rakociński, Michał; Walaszczyk, Ireneusz; Thibault, Nicolas.

I: Gondwana Research, Bind 129, 2024, s. 1-22.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Dubicka, Z, Wierny, W, Bojanowski, MJ, Rakociński, M, Walaszczyk, I & Thibault, N 2024, 'Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea: Paleoceanographic implications', Gondwana Research, bind 129, s. 1-22. https://doi.org/10.1016/j.gr.2023.11.010

APA

Dubicka, Z., Wierny, W., Bojanowski, M. J., Rakociński, M., Walaszczyk, I., & Thibault, N. (2024). Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea: Paleoceanographic implications. Gondwana Research, 129, 1-22. https://doi.org/10.1016/j.gr.2023.11.010

Vancouver

Dubicka Z, Wierny W, Bojanowski MJ, Rakociński M, Walaszczyk I, Thibault N. Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea: Paleoceanographic implications. Gondwana Research. 2024;129:1-22. https://doi.org/10.1016/j.gr.2023.11.010

Author

Dubicka, Zofia ; Wierny, Weronika ; Bojanowski, Maciej J. ; Rakociński, Michał ; Walaszczyk, Ireneusz ; Thibault, Nicolas. / Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea : Paleoceanographic implications. I: Gondwana Research. 2024 ; Bind 129. s. 1-22.

Bibtex

@article{80bc482f4d344a53a5849938f3c74b9b,
title = "Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea: Paleoceanographic implications",
abstract = "The Cretaceous provides us with an excellent case history of ocean-climate-biota system perturbations. Such perturbations occurred several times during the Cretaceous, such as oceanic anoxic events and the end-Cretaceous mass extinction, which have been the subject of an abundant literature. Other perturbations, such as the mid-Maastrichtian Event (MME) remain poorly understood. The MME was associated with global sea-level rise, changes in climate and deep-water circulation that were accompanied by biotic extinctions including {\textquoteleft}true inoceramids{\textquoteright} and the demise of the Caribbean-Tethyan rudist reef ecosystems. So far, the context and causes behind the MME remain poorly studied. We conducted high-resolution integrated biotic, petrological and geochemical studies in order to fill this knowledge gap. We studied, in particular, carbonate Nd and Os isotopes, whole-rock Hg, C and N content, C and N isotopes in organic matter, S isotopes in carbonate-associated sulfate, along with C and O isotopes in foraminifera from the European Chalk Sea: the Polan{\'o}wka UW-1 core from Poland and the Stevns-1 core from Denmark. Our data showed that sea-level rise of ∼50–100 m lasted around ∼2 Ma and co-occurred with anomalously high mercury concentration in seawater. Along with previously published data, our results strongly suggest that the MME was driven by intense volcanic–tectonic activity, likely related to the production of vast oceanic plateaus (LIP, Large Igneous Province). The collapse of reef ecosystems could have been the consequence of LIP-related environmental stress factors, including climate warming, presumably caused by emission of greenhouse gases, modification of the oceanic circulation, oceanic acidification and/or toxic metal input. The disappearance of the foraminifer Stensioeina lineage on the European shelf was likely caused by the collapse of primary production triggered by sea-level rise and limited amount of nutrient input. Nd isotopes and foraminiferal assemblages attest for changes in sea-water circulation in the European Shelf and the increasing contribution of North Atlantic water masses.",
keywords = "Climate warming, Cretaceous, Extinction, Large Igneous Province (LIP), Sea-level",
author = "Zofia Dubicka and Weronika Wierny and Bojanowski, {Maciej J.} and Micha{\l} Rakoci{\'n}ski and Ireneusz Walaszczyk and Nicolas Thibault",
note = "Publisher Copyright: {\textcopyright} 2023 The Authors",
year = "2024",
doi = "10.1016/j.gr.2023.11.010",
language = "English",
volume = "129",
pages = "1--22",
journal = "Gondwana Research",
issn = "1342-937X",
publisher = "Elsevier",

}

RIS

TY - JOUR

T1 - Multi-proxy record of the mid-Maastrichtian event in the European Chalk Sea

T2 - Paleoceanographic implications

AU - Dubicka, Zofia

AU - Wierny, Weronika

AU - Bojanowski, Maciej J.

AU - Rakociński, Michał

AU - Walaszczyk, Ireneusz

AU - Thibault, Nicolas

N1 - Publisher Copyright: © 2023 The Authors

PY - 2024

Y1 - 2024

N2 - The Cretaceous provides us with an excellent case history of ocean-climate-biota system perturbations. Such perturbations occurred several times during the Cretaceous, such as oceanic anoxic events and the end-Cretaceous mass extinction, which have been the subject of an abundant literature. Other perturbations, such as the mid-Maastrichtian Event (MME) remain poorly understood. The MME was associated with global sea-level rise, changes in climate and deep-water circulation that were accompanied by biotic extinctions including ‘true inoceramids’ and the demise of the Caribbean-Tethyan rudist reef ecosystems. So far, the context and causes behind the MME remain poorly studied. We conducted high-resolution integrated biotic, petrological and geochemical studies in order to fill this knowledge gap. We studied, in particular, carbonate Nd and Os isotopes, whole-rock Hg, C and N content, C and N isotopes in organic matter, S isotopes in carbonate-associated sulfate, along with C and O isotopes in foraminifera from the European Chalk Sea: the Polanówka UW-1 core from Poland and the Stevns-1 core from Denmark. Our data showed that sea-level rise of ∼50–100 m lasted around ∼2 Ma and co-occurred with anomalously high mercury concentration in seawater. Along with previously published data, our results strongly suggest that the MME was driven by intense volcanic–tectonic activity, likely related to the production of vast oceanic plateaus (LIP, Large Igneous Province). The collapse of reef ecosystems could have been the consequence of LIP-related environmental stress factors, including climate warming, presumably caused by emission of greenhouse gases, modification of the oceanic circulation, oceanic acidification and/or toxic metal input. The disappearance of the foraminifer Stensioeina lineage on the European shelf was likely caused by the collapse of primary production triggered by sea-level rise and limited amount of nutrient input. Nd isotopes and foraminiferal assemblages attest for changes in sea-water circulation in the European Shelf and the increasing contribution of North Atlantic water masses.

AB - The Cretaceous provides us with an excellent case history of ocean-climate-biota system perturbations. Such perturbations occurred several times during the Cretaceous, such as oceanic anoxic events and the end-Cretaceous mass extinction, which have been the subject of an abundant literature. Other perturbations, such as the mid-Maastrichtian Event (MME) remain poorly understood. The MME was associated with global sea-level rise, changes in climate and deep-water circulation that were accompanied by biotic extinctions including ‘true inoceramids’ and the demise of the Caribbean-Tethyan rudist reef ecosystems. So far, the context and causes behind the MME remain poorly studied. We conducted high-resolution integrated biotic, petrological and geochemical studies in order to fill this knowledge gap. We studied, in particular, carbonate Nd and Os isotopes, whole-rock Hg, C and N content, C and N isotopes in organic matter, S isotopes in carbonate-associated sulfate, along with C and O isotopes in foraminifera from the European Chalk Sea: the Polanówka UW-1 core from Poland and the Stevns-1 core from Denmark. Our data showed that sea-level rise of ∼50–100 m lasted around ∼2 Ma and co-occurred with anomalously high mercury concentration in seawater. Along with previously published data, our results strongly suggest that the MME was driven by intense volcanic–tectonic activity, likely related to the production of vast oceanic plateaus (LIP, Large Igneous Province). The collapse of reef ecosystems could have been the consequence of LIP-related environmental stress factors, including climate warming, presumably caused by emission of greenhouse gases, modification of the oceanic circulation, oceanic acidification and/or toxic metal input. The disappearance of the foraminifer Stensioeina lineage on the European shelf was likely caused by the collapse of primary production triggered by sea-level rise and limited amount of nutrient input. Nd isotopes and foraminiferal assemblages attest for changes in sea-water circulation in the European Shelf and the increasing contribution of North Atlantic water masses.

KW - Climate warming

KW - Cretaceous

KW - Extinction

KW - Large Igneous Province (LIP)

KW - Sea-level

U2 - 10.1016/j.gr.2023.11.010

DO - 10.1016/j.gr.2023.11.010

M3 - Journal article

AN - SCOPUS:85180009067

VL - 129

SP - 1

EP - 22

JO - Gondwana Research

JF - Gondwana Research

SN - 1342-937X

ER -

ID: 382440504