Advancing scientific understanding of climate, improving society’s ability to plan and respond
Advancing scientific understanding of climate, improving society’s ability to plan and respond
This webinar is part of a series spotlighting NOAA Climate & Global Change Postdoctoral Fellows and will feature recent fellow and research scientist Dr. Melissa Breeden discussing precipitation forecasts in food-insecure regions of Southeast Asia.
Informational webinar to provide context for CVP & MAPP’s new funding opportunity for Earth System Science and Modeling Research for Coastal Inundation under the Bipartisan Infrastructure Law
Improvements in flood predictability along the Mississippi River by a COM-funded study use a high-quality dataset spanning the past 1,000 years to link tropical Pacific and North Atlantic patterns to regional hydroclimate.
A recent CVP-supported modeling study examines the relative importance of air and ocean processes on the global climate system over various spatial and temporal scales.
Using Climate Models to Dig Deeper into Air and Sea Influences on the Global System Read More »
New modeling framework supported by CVP uses Hurricane Harvey as a case study to improve the predictability over the next seventy years of precipitation and flooding due to hurricanes and climate change.
The April 2022 workshop report for the DOE-NOAA Marine Cloud Brightening (MCB) workshop is now available.
DOE-NOAA Marine Cloud Brightening Workshop Report Read More »
More than 10 research team members and interns will present on climate topics relevant to CPO’s mission at the American Geophysical Union’s Fall 2022 Meeting.
CPO research will be presented at AGU Fall 2022 Meeting Read More »
A recent study supported by AC4 uses modeling methods to improve long-term observational records, confirming an understood trend of decreasing ozone in the lower stratosphere and challenging previous work showing a positive trend in the upper stratosphere.
Refining Long-Term Data of Ozone in the Stratosphere Using Observations and Modeling Read More »
A new COM-funded Arctic sea ice study improves predictions of sea ice freeze-up and break-up in coastal regions by identifying local indicators.
A research team supported by CVP produces a new modeling study to improve predictability of air-sea interactions of the Meiyu front, a meteorological zone which separates Arctic from tropical climatic zones in the Pacific Ocean.
Improved Predictability of Air-Sea Interactions between Arctic and Tropical Zones Read More »