Skip to Main Content (Press Enter)

Logo UNIMORE
  • ×
  • Home
  • Degree programmes
  • Modules
  • Jobs
  • People
  • Research Outputs
  • Academic units
  • Third Mission
  • Projects
  • Skills

UNI-FIND
Logo UNIMORE

|

UNI-FIND

unimore.it
  • ×
  • Home
  • Degree programmes
  • Modules
  • Jobs
  • People
  • Research Outputs
  • Academic units
  • Third Mission
  • Projects
  • Skills
  1. Research Outputs

The Eurasian epicontinental sea was an important carbon sink during the Palaeocene-Eocene thermal maximum

Academic Article
Publication Date:
2022
Short description:
The Eurasian epicontinental sea was an important carbon sink during the Palaeocene-Eocene thermal maximum / Kaya, Mustafa Y.; Dupont-Nivet, Guillaume; Frieling, Joost; Fioroni, Chiara; Rohrmann, Alexander; Özkan Altıner, Sevinç; Vardar, Ezgi; Tanyaş, Hakan; Mamtimin &, Mehmut; Zhaojie, Guo. - In: COMMUNICATIONS EARTH & ENVIRONMENT. - ISSN 2662-4435. - 3:1(2022), pp. 1-10. [10.1038/s43247-022-00451-4]
abstract:
The Palaeocene-Eocene Thermal Maximum (ca. 56 million years ago) offers a primary analogue for future global warming and carbon cycle recovery. Yet, where and how massive carbon emissions were mitigated during this climate warming event remains largely unknown. Here we show that organic carbon burial in the vast epicontinental seaways that extended over Eurasia provided a major carbon sink during the Palaeocene-Eocene Thermal Maximum. We coupled new and existing stratigraphic analyses to a detailed paleogeographic framework and using spatiotemporal interpolation calculated ca. 720–1300 Gt organic carbon excess burial, focused in the eastern parts of the Eurasian epicontinental seaways. A much larger amount (2160–3900 Gt C, and when accounting for the increase in inundated shelf area 7400–10300 Gt C) could have been sequestered in similar environments globally. With the disappearance of most epicontinental seas since the Oligocene-Miocene, an effective negative carbon cycle feedback also disappeared making the modern carbon cycle critically dependent on the slower silicate weathering feedback.
Iris type:
Articolo su rivista
List of contributors:
Kaya, Mustafa Y.; Dupont-Nivet, Guillaume; Frieling, Joost; Fioroni, Chiara; Rohrmann, Alexander; Özkan Altıner, Sevinç; Vardar, Ezgi; Tanyaş, Hakan; Mamtimin &, Mehmut; Zhaojie, Guo
Authors of the University:
FIORONI Chiara
Handle:
https://iris.unimore.it/handle/11380/1278518
Full Text:
https://iris.unimore.it//retrieve/handle/11380/1278518/471507/s43247-022-00451-4.pdf
Published in:
COMMUNICATIONS EARTH & ENVIRONMENT
Journal
  • Use of cookies

Powered by VIVO | Designed by Cineca | 26.5.1.0