The results of new simulations that account for internal climate variability contrast with previous projections of how this vital West Coast current will respond to anthropogenic warming.
Modeling
Posted inResearch Spotlights
Lab Tests Probe Carbon Planets’ Inner Dynamics
Thermal convection in deep interiors could be more vigorous in carbide planets than in comparably sized silicate planets, according to new high-pressure measurements of silicon carbide.
Posted inResearch Spotlights
Shedding Light on Intermittent Rainfall
A study provides a new modeling method to simulate rain when it pours and when it doesn’t.
Posted inResearch Spotlights
Impacts of “Bomb” Cyclones Reach the Ocean Floor
Japanese researchers study explosive cyclones with models to simulate decades of ocean circulation data.
Posted inResearch Spotlights
Can Ocean Tides Be Powerful Indicators of Climate Change?
A new study simulates how ocean warming due to climate change will affect the electromagnetic signal emitted by ocean tides over the next century.
Posted inResearch Spotlights
New Supercomputers Allow Climate Models to Capture Convection
Scientists evaluate the latest version of a fine-scale climate model by simulating a decade of precipitation patterns across Europe.
Posted inEditors' Vox
A Foundation for Modeling Time-Periodic Groundwater Flow
The authors of a new book on groundwater hydraulics and hydrology describe a theoretical foundation for modeling time-periodic groundwater flow.
Posted inEditors' Vox
Competing Models of Mountain Formation Reconciled
The author of a prize-winning paper published in Geochemistry, Geophysics, Geosystems describes new insights into crustal mechanics and the formation of the Himalaya.
Posted inResearch Spotlights
New Tool for Understanding Landscape Evolution in Drylands
Combining vegetation distribution models and sediment transport models offers a better understanding of how dryland environments change in response to different factors.
Posted inResearch Spotlights
An Improved Model of How Magma Moves Through the Crust
Researchers have developed a new numerical model that can, for the first time, solve for both the speed and the path of a propagating dike.