Ocean Temps Predict U.S. Heat Waves 50 Days out, Study Finds

The pattern is a contrast of warmer-than-average water butting up against cooler-than-average seas

Written byLaura Snider-National Center for Atmospheric Research News Office
| 4 min read
Register for free to listen to this article
Listen with Speechify
0:00
4:00

BOULDER -- The formation of a distinct pattern of sea surface temperatures in the middle of the North Pacific Ocean can predict an increased chance of summertime heat waves in the eastern half of the United States up to 50 days in advance, according to a new study led by a scientist at the National Center for Atmospheric Research (NCAR). 

The pattern is a contrast of warmer-than-average water butting up against cooler-than-average seas. When it appears, the odds that extreme heat will strike during a particular week—or even on a particular day—can more than triple, depending on how well-formed the pattern is.

The research is being published in the journal Nature Geoscience.

Related Article: Scientists Suggest Ocean Warming in Southern Hemisphere Underestimated

"Summertime heat waves are among the deadliest weather events, and they can have big impacts on farming, energy use, and other critical aspects of society," said Karen McKinnon, a postdoctoral researcher at NCAR and the lead author of the study. "If we can give city planners and farmers a heads up that extreme heat is on the way, we might be able to avoid some of the worst consequences."

To continue reading this article, sign up for FREE to
Lab Manager Logo
Membership is FREE and provides you with instant access to eNewsletters, digital publications, article archives, and more.
Add Lab Manager as a preferred source on Google

Add Lab Manager as a preferred Google source to see more of our trusted coverage.

About the Author

Related Topics

Current Magazine Issue Background Image

CURRENT ISSUE - September/2026

Are You Asking the Right Questions?

How Question Framing Shapes Better Lab Decisions

Lab Manager September 2026 Cover Image