Extending classical CNOP method for deep-learning atmospheric and oceanic forecasting
Peer-Reviewed Publication
Updates every hour. Last Updated: 15-Aug-2025 15:11 ET (15-Aug-2025 19:11 GMT/UTC)
Researchers extend classical CNOP method for deep learning forecasting models with multi-time-slice-input structure. It reveals when—not just where—input errors matter most in targeted observations. This improves forecasts for ocean-atmospheric variables, especially high-impact environmental events.
A new review highlights advancements in thermoelectric generators (TEGs) that use solar energy and radiative cooling to produce clean electricity. This breakthrough technology shows promise for off-grid power solutions and sustainable energy applications.
A recently published article in the journal BioScience reveals that endangered longleaf pine ecosystems—among North America's most biodiverse habitats—face mounting threats from intensifying hurricane regimes driven by climate change. An interdisciplinary team of authors headed by Nicole Zampieri (Tall Timbers and The Jones Center at Ichauway) describe the urgent situation: The North American Coastal Plain was once characterized by extensive longleaf pine savannas covering approximately 36 million hectares. Today, these ecosystems "now occupy less than 5% of their historic distribution, primarily because of habitat fragmentation, widespread unsustainable logging, land-use conversion, and fire suppression during the past half millennium."
A new online platform, SMRT-Flames, can identify areas in need of land management in order to reduce future smoke exposures from uncontrolled fires. While most wildfire tools predict fire risk, SMRT-Flames explicitly considers smoke exposure across populations
A Dartmouth study uses machine learning to reexamine whether climate change is causing large waves in the polar jet stream that have brought Arctic-like temperatures and storms to temperate regions of the United States in recent years. The researchers constructed a timeline of the jet stream's wintertime variability since 1901 and found it's in the latest of several “wavy” periods from the past 125 years, most of which predate significant effects of climate change. The authors report that climate change is likely not amplifying extreme winter weather by making the jet stream wavier, but through more direct links such as a warmer atmosphere that retains more moisture.