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OU Weather Researcher Receives National Science Foundation CAREER Award

August 9, 2021

OU Weather Researcher Receives National Science Foundation CAREER Award

Naoko Sakaeda
Naoko Sakaeda

Naoko Sakaeda, an assistant professor in the College of Atmospheric and Geographic Sciences at the University of Oklahoma, has received a 2021 National Science Foundation CAREER award to improve scientists’ understanding of the global atmosphere. Sakaeda studies tropical meteorology, especially the unique atmospheric waves at tropical latitudes that influence global weather and climate.

“The atmosphere has no boundaries; whatever happens in the tropics matters a lot to the entire global circulation,” Sakaeda said. “Improving the long-range forecast of severe weather here is dependent on better understanding of the atmosphere globally.”

“You can imagine it as a pot of water. If you start to boil a section, you expect the entire water to start moving in response,” she adds. “The issue we currently have is that tropical atmosphere is much less understood and is difficult to accurately forecast in weather and climate models.”

Sakaeda explains that an extreme weather event in Oklahoma might be driven by cold or warm fronts that are associated with large temperature changes. However, in the tropics, such fronts do not exist, so how temperature evolves and what drives weather are very different.

“How the clouds interact with the atmospheric environment in the tropics is key but is challenging to observe,” she said. “The amount of incoming sunlight, its seasonal cycle, and the effects of the Earth’s curvature and rotation on air flow are different between the tropics and higher latitudes. These are some of the reasons why the atmosphere in the tropics behaves differently compared to the weather and climate over the continental United States.”

The five-year project, funded by a $652,000 grant from the National Science Foundation, looks at the interactions among the atmosphere in the topics and mid-latitude to comprise the global atmosphere, a paradigm Sakaeda says was shaped by her childhood.

Climate.gov drawing of the Madden-Julian Oscillation by Fiona Martin. The drawing depicts a visualization of tropical atmospheric waves. Source: https://www.climate.gov/news-features/blogs/enso/what-mjo-and-why-do-we-care
Visualization of tropical atmospheric waves. Drawing via climate.gov/Fiona Martin.

“I was raised in different countries, and I was fascinated that while we lived in places with different cultures, languages, customs and politics, the atmosphere has no boundary,” she said. “The political movements of one country have an influence on weather-related resources.”

Similarly, the educational component of the grant aims to reduce barriers to public school educators by providing open access to atmospheric science educational content. Sakaeda will likewise host a summer school through the OU pre-college program for grade school students and will develop online educational activities and modules accessible through the National Weather Center website.

“The educational component of this project presents the global integration aspect of weather and climate to K-12 students,” she said. “The motivation of my research highlights that we need global collaboration and diverse perspectives to continue the advancement of our field.”

Berrien Moore, director of the National Weather Center and dean of the OU College of Atmospheric and Geographic Sciences, said, “We are particularly proud of our young faculty in the School of Meteorology. This pride is very justified; Professor Sakaeda has just received the National Science Foundation's most prestigious award in support of early-career faculty. This award is highly selective and given to young scholars who have the potential to serve as academic role models in research and education and to lead important scientific advances.”

“This award to Professor Sakaeda recognizes her exceptional work in advancing our understanding of the dynamics of tropical clouds and precipitation at various scales and their interactions with higher latitudes,” he added. “This work is important to a wide set of issues challenging meteorology from sub-seasonal to seasonal prediction as well as clarifying key issues in high-impact weather.”