Researchers develop a mathematical method of modeling tabular icebergs, like the one that broke away from an Antarctic ice shelf earlier this year.
Journal of Advances in Modeling Earth Systems (JAMES)
Posted inResearch Spotlights
How Shifting Winds Turn Tropical Storms into Hurricanes
Researchers present a novel method for analyzing how wind shear affects tropical cyclone strength and structure.
Posted inResearch Spotlights
Clouds in Climate Models of a Simulated Water-Covered Earth
Researchers use aquaplanet experiments to zero in on the effects of small-scale processes in the tropics that cause discrepancies between climate models.
Posted inResearch Spotlights
Climate Change May Reduce Future Corn Supply
A suite of simulations run with a spectrum of starting conditions shows that climate change will reduce corn crop yield, although the degree of reductions varies widely.
Posted inEditors' Vox
Four Perspectives on Order From Chaos
What makes thunderstorms clump, even to the point of singularity, over uniform oceans? Three recent papers in JAMES address this question, and a new Commentary ties them together.
Posted inResearch Spotlights
Climate Change Influences the Dynamics Behind Tropical Cyclones
A new model reveals how cumulus convection, humidity, and tropical circulations interact as global temperatures rise.
Posted inResearch Spotlights
Nitrogen Garners Starring Role in Refined Earth System Model
Scientists create a more realistic representation of plant nitrogen uptake and usage to improve global climate simulations.
Posted inResearch Spotlights
Modeling the Effects of Clouds on Climate
New research investigates how mixed-phase cloud partitioning and cloud cover compensate each other in GCMs.
Posted inResearch Spotlights
Permafrost Area Is Sensitive to Key Soil and Snow Physics
Accounting for key soil and snow variables shows a much higher impact on simulated permafrost area than uncertainties in land cover and climate data.
Posted inResearch Spotlights
Modeling Weather over Mountainous Terrain
Scientists use high-resolution models to study how the jagged terrain of the Earth's mountains influences precipitation.