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Modeling

The 25 May 2014 West Salt Creek landslide had a volume of 30 million cubic meters of rock and a runout of 4.5 kilometers (about 7 times its fall height).
Posted inResearch Spotlights

What Makes Long-Runout Landslides So Mobile?

Kate Wheeling, freelance science writer by Kate Wheeling 22 April 201628 March 2023

New research shows that acoustic waves rippling through some large landslides can reduce friction and allow slides to run out long distances.

A view of Earth from space, visualizing the stratospheric aerosol layer.
Posted inResearch Spotlights

A Decade of Progress in Stratospheric Aerosol Research

by Terri Cook 20 April 20162 February 2022

Enhanced technology and chemistry-climate models have advanced our understanding of the sources and processes controlling the evolution of the stratospheric aerosol layer, the so-called Junge layer.

Posted inResearch Spotlights

Nitrogen Garners Starring Role in Refined Earth System Model

by S. Kelleher 19 April 20167 July 2022

Scientists create a more realistic representation of plant nitrogen uptake and usage to improve global climate simulations.

Posted inResearch Spotlights

Improving the Identification of Extreme Precipitation Trends in the U.S.

by Terri Cook 14 April 201628 February 2023

By greatly reducing the associated uncertainty, a new model is better able to discern statistically significant trends, offering the potential to improve the seasonal forecasting of rare events.

A wave of mixed-phase clouds composed of ice and supercooled liquid water brushes the peaks of Jungfraujoch in the Swiss Alps.
Posted inNews

Icy Clouds May Counter Climate Warming Less Than Expected

by E. Deatrick 13 April 201614 February 2023

A new analysis of cloud composition and behavior suggests that scientists have overestimated the ability of a type of mixed-phase ice-and-water cloud to mitigate climate change effects.

Posted inResearch Spotlights

Modeling the Effects of Clouds on Climate

by W. Yan 11 April 20166 July 2022

New research investigates how mixed-phase cloud partitioning and cloud cover compensate each other in GCMs.

Posted inEditors' Vox

Insights on Climate Systems from Interglacials

by Mark Moldwin 8 April 201618 May 2023

Interglacials provide insights into the impacts of warmer than present conditions in certain regions of Earth.

lightning-boulder-colorado-jorgensen
Posted inResearch Spotlights

Considering Atmospheric Electricity in Climate Models

Kate Wheeling, freelance science writer by Kate Wheeling 7 April 201610 December 2022

Researchers create a new model of the electric currents circulating throughout the atmosphere that will improve the accuracy of global climate models.

north-dakotas-knife-river-indian-villages-national-historic
Posted inScience Updates

High-Resolution Climate Modeling for Regional Adaptation

by I. Rangwala, C. Dewes and J. Barsugli 25 March 20163 November 2022

High-Resolution Climate Modeling in the Northern Great Plains; Boulder, Colorado, 24–25 September 2015

Posted inResearch Spotlights

Which Geodynamo Models Will Work Best on Next-Gen Computers?

by Terri Cook 11 March 201630 September 2022

A new study uses identical tests to evaluate the accuracy and performance of current models of Earth's magnetic field, then extrapolates the results to anticipated "petascale" supercomputers.

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Experienced Researcher Book Publishing: Sharing Deep Expertise

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