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Precipitation in central Asia shaped by sea surface temperature over tropical pacific and north Atlantic: Study

Researchers from the Institute of Atmospheric Physics found that tropical Pacific decadal variability and Atlantic multidecadal variability drive Central Asian precipitation changes. Warmer SSTs in these regions favor wetter conditions, especially in southern and northern parts of Central Asia.

Volcanism drove rapid ocean deoxygenation during the time of the dinosaurs

Research from UBC and HKU Earth scientists reveals that massive volcanism played a key role in triggering oceanic anoxia, with CO2-induced environmental warming creating 'dead zones' over short timescales. The findings provide important insights into the sensitivity of the Earth system to global biogeochemical cycles and marine biology.

SourceUniversity of British Columbia·JournalGeology·TypeExperimental study·DateAug 23, 2021

New way of analyzing tree rings confirms unprecedented central Asia warming

Researchers reconstructed Mongolia's temperature history using a new tree ring analysis method, confirming record-breaking summer warmth over the past eight centuries. The study supports the delta blue intensity method and enhances climate projections, highlighting the urgent need to address Central Asia's rapid warming.

SourceColumbia Climate School·JournalGeophysical Research Letters·TypeData/statistical analysis·DateAug 17, 2021

The 'Great Dying'

A new study reveals that the End-Permian extinction event, also known as the 'Great Dying', was caused by a rapid spike in global temperatures due to volcanic activity. The researchers found that the region experienced abrupt aridification and changed climate patterns, with high-southern latitudes serving as refugia for moisture-loving...

SourceGeological Society of America·JournalGeology·DateMay 19, 2021

Back to the future of climate

Researchers from ETH Zurich and colleagues reconstructed the Paleocene and Eocene climates using siderite minerals, finding high humidity and heat transport. This suggests today's global warming is linked to increased moisture and heat transport in the atmosphere.

SourceETH Zurich·JournalNature Geoscience·DateOct 27, 2020

Reconstructing global climate through Earth's history

Researchers have developed a framework to reconcile discrepancies in ancient sea surface temperature estimates and climate model results. By accounting for location-biased paleoclimate data, scientists can better reconstruct global climate conditions in the past and improve predictions of future climate scenarios.

SourceSyracuse University·JournalGeophysical Research Letters·DateAug 13, 2020

A long view of California's climate

A recent study examines California's climate over a centuries-long time period, linking long-term wind patterns to future wildfire risks. The research provides a stronger foundation for evaluating regional natural hazards in the state.

SourceNOAA·JournalProceedings of the National Academy of Sciences·DateMar 4, 2019

UMass Amherst geoscientists reconstruct 'eye-opening' 900-year Northeast climate record

Geoscientists at UMass Amherst have reconstructed the longest and highest-resolution climate record for the Northeastern United States, revealing previously undetected past temperature cycles. The study used branched glycerol dialkyl glycerol tetra ethers (branched GDGTs) to provide an independent terrestrial paleo-thermometer.

SourceUniversity of Massachusetts Amherst·JournalClimate of the Past·DateJan 9, 2019

Epidemics and climate

A study reconstructing climatic patterns in China from AD 1-1911 found long periods of cold and dry conditions associated with epidemic outbreaks. However, the relationship between temperature and epidemics varied across short time scales, highlighting climate's scale-dependent impacts on disease prevalence.

SourceProceedings of the National Academy of Sciences·JournalProceedings of the National Academy of Sciences·DateNov 6, 2017

Secrets of the calcerous ooze revealed

Researchers have developed a new method to analyze the carbon content of ancient coccolithophore shells, providing insights into past CO2 levels and climate sensitivity. The study uses mathematical modeling and laboratory experiments to understand the biology of ancient creatures and their impact on the environment.

SourceWashington University in St. Louis·JournalNature Communications·DateFeb 28, 2017