Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fossil record of nannoplankton. Declines in calcium carbonate (CaCO_{3}) and nannofossil abundance through several past global warming events have been interpreted as biocalcification crises caused by ocean acidification and related factors. We present a global record of imprint—or “ghost”—nannofossils that contradicts this view, revealing exquisitely preserved nannoplankton throughout an inferred Jurassic biocalcification crisis. Imprints from two further Cretaceous warming events confirm that the fossil records of these intervals have been strongly distorted by CaCO3 dissolution. Although the rapidity of present-day climate change exceeds the...
Anthropogenic carbon dioxide emissions are forcing rapid ocean chemistry changes and causing ocean a...
Coccolithophores are single-celled photosynthesizing marine algae, responsible for half of the calci...
International audienceDuring the early Toarcian (Early Jurassic, ~183 Ma) global climate and environ...
Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fo...
Past global warming events such as the Palaeocene–Eocene Thermal Maximum (PETM—56 Ma) are attributed...
Current carbon dioxide emissions are an assumed threat to oceanic calcifying plankton (coccolithopho...
Recent environmental changes and climate instabilities pose urgent questions regarding biota ability...
At present about one third of the carbon dioxide (CO2) released in the atmosphere from fossil fuel b...
Earth history is punctuated by phases of extreme global stress of concurrent warming, ocean fertilis...
Widely regarded as an imminent threat to our oceans, ocean acidification has been documented in all ...
International audienceCenozoic deep-sea carbonates (“calcareous oozes”) are predominantly biogenic i...
Predicting the impact of ongoing anthropogenic CO2 emissions on calcifying marine organisms is compl...
The Cretaceous evolution of calcareous plankton is characterized by a complex history punctuated by ...
Anthropogenic carbon dioxide emissions are forcing rapid ocean chemistry changes and causing ocean a...
Coccolithophores are single-celled photosynthesizing marine algae, responsible for half of the calci...
International audienceDuring the early Toarcian (Early Jurassic, ~183 Ma) global climate and environ...
Predictions of how marine calcifying organisms will respond to climate change rely heavily on the fo...
Past global warming events such as the Palaeocene–Eocene Thermal Maximum (PETM—56 Ma) are attributed...
Current carbon dioxide emissions are an assumed threat to oceanic calcifying plankton (coccolithopho...
Recent environmental changes and climate instabilities pose urgent questions regarding biota ability...
At present about one third of the carbon dioxide (CO2) released in the atmosphere from fossil fuel b...
Earth history is punctuated by phases of extreme global stress of concurrent warming, ocean fertilis...
Widely regarded as an imminent threat to our oceans, ocean acidification has been documented in all ...
International audienceCenozoic deep-sea carbonates (“calcareous oozes”) are predominantly biogenic i...
Predicting the impact of ongoing anthropogenic CO2 emissions on calcifying marine organisms is compl...
The Cretaceous evolution of calcareous plankton is characterized by a complex history punctuated by ...
Anthropogenic carbon dioxide emissions are forcing rapid ocean chemistry changes and causing ocean a...
Coccolithophores are single-celled photosynthesizing marine algae, responsible for half of the calci...
International audienceDuring the early Toarcian (Early Jurassic, ~183 Ma) global climate and environ...