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Dust May Beat Black Carbon at Speeding Up Snowmelt in the Himalayas
Tiny dust particles at high altitudes are having a greater effect on snow-darkening than previously thought, accelerating the loss of glaciers.
Tiny dust particles at high altitudes are having a greater effect on snow-darkening than previously thought, accelerating the loss of glaciers.
In roughly 200 million years, the continents will once again unite into a supercontinent. A new study explores how the next Pangea could affect the global climate.
The massive ice sheet is now locked into a certain amount of decline. But reducing emissions remains critical to preventing catastrophic loss of the entire ice sheet.
Understanding how clouds respond to climate change will be essential for predicting how much hotter the planet could get.
A new study uncovers a previously undocumented relationship between erosion and wind speed.
New findings double potential emissions from these areas, with big implications for climate modeling.
Observational data confirms that Hadley cell circulation is weakening, which has important consequences for future rainfall in the subtropics.
A new study uses machine learning to better represent clouds in climate models, which helps to predict the climate’s response to rising levels of greenhouse gases.
How past climate data improves our understanding of climate change and helps predict its impacts.
Understanding the range of climate risks requires understanding the way in which climate models are built and the assumptions that underpin them.