Past global warming events such as the Palaeocene–Eocene Thermal Maximum (PETM—56 Ma) are attributed to the release of vast amounts of carbon into the ocean, atmosphere and biosphere with recovery ascribed to a combination of silicate weathering and organic carbon burial. The phytoplanktonic nannoplankton are major contributors of organic and inorganic carbon but their role in this recovery process remains poorly understood and complicated by their contribution to marine calcification. Biocalcification is implicated not only in long-term carbon burial but also both short-term positive and negative climatic feedbacks associated with seawater buffering and responses to ocean acidification. Here, we use exceptional records of preserved fossil ...
International audienceCenozoic deep-sea carbonates (“calcareous oozes”) are predominantly biogenic i...
AbstractCarbonate‐forming organisms play an integral role in the marine inorganic carbon cycle, yet ...
Studies on a climate extreme as the Paleocene-Eocene Thermal Maximum (PETM, ~ 55 myrs ago) have show...
Past global warming events such as the Palaeocene–Eocene Thermal Maximum (PETM—56 Ma) are attributed...
Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fo...
Current carbon dioxide emissions are an assumed threat to oceanic calcifying plankton (coccolithopho...
The Early Eocene Thermal Maximum 2 (ETM2) at ~53.7 Ma is one of multiple hyperthermal events that fo...
Anthropogenic carbon dioxide emissions are forcing rapid ocean chemistry changes and causing ocean a...
Phytoplankton calcifiers contribute to global carbon cycling through their dual formation of calcium...
Coccolithophores are single-celled photosynthesizing marine algae, responsible for half of the calci...
This thesis documents calcareous nannoplankton diversity, population dynamics and community structur...
Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fo...
International audienceCenozoic deep-sea carbonates (“calcareous oozes”) are predominantly biogenic i...
AbstractCarbonate‐forming organisms play an integral role in the marine inorganic carbon cycle, yet ...
Studies on a climate extreme as the Paleocene-Eocene Thermal Maximum (PETM, ~ 55 myrs ago) have show...
Past global warming events such as the Palaeocene–Eocene Thermal Maximum (PETM—56 Ma) are attributed...
Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fo...
Current carbon dioxide emissions are an assumed threat to oceanic calcifying plankton (coccolithopho...
The Early Eocene Thermal Maximum 2 (ETM2) at ~53.7 Ma is one of multiple hyperthermal events that fo...
Anthropogenic carbon dioxide emissions are forcing rapid ocean chemistry changes and causing ocean a...
Phytoplankton calcifiers contribute to global carbon cycling through their dual formation of calcium...
Coccolithophores are single-celled photosynthesizing marine algae, responsible for half of the calci...
This thesis documents calcareous nannoplankton diversity, population dynamics and community structur...
Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fo...
International audienceCenozoic deep-sea carbonates (“calcareous oozes”) are predominantly biogenic i...
AbstractCarbonate‐forming organisms play an integral role in the marine inorganic carbon cycle, yet ...
Studies on a climate extreme as the Paleocene-Eocene Thermal Maximum (PETM, ~ 55 myrs ago) have show...