OU and NOAA Extend Nearly 50-Year Weather Research Partnership With $220 Million Renewal

The University of Oklahoma has secured up to $220 million over the next five years from the U.S. Department of Commerce and the National Oceanic and Atmospheric Administration, a renewal that extends one of the longest-running university-federal research partnerships in American atmospheric science. The funding continues the work of the Cooperative Institute for Severe and High-Impact Weather Research and Operations, known as CIWRO, through September 2031. The award arrives as the partnership marks its fifth decade, having begun in 1978, and follows a rigorous external review of performance metrics in which the institute earned the highest possible score. For a state that sits at the crossroads of some of the most violent weather on Earth, the renewal is more than an administrative milestone. It is a guarantee that the pipeline connecting laboratory discovery to the warnings that reach the public before a tornado strikes will keep flowing for at least another five years.

The institute’s home is the National Weather Center in Norman, Oklahoma, a building whose very architecture embodies the partnership’s philosophy. Inside, University of Oklahoma researchers work side by side with scientists from NOAA’s National Severe Storms Laboratory, forecasters from the Storm Prediction Center, and staff from National Weather Service field offices, alongside additional state and private partners. This co-location is not a matter of convenience; it is the mechanism by which the institute has built its reputation. When a research team develops a new algorithm for interpreting radar data, the forecasters who would use it are down the hall, able to test it, critique it, and shape it into a tool that works under the pressure of an approaching squall line. The result is a weather research hub that has repeatedly compressed the traditional gap between scientific discovery and operational deployment, moving products from the research bench into National Weather Service operations in years rather than decades.

Greg McFarquhar, director of CIWRO, described the effect of the cooperative agreement in transforming the university’s standing in the field. With the funding, he said, OU has become a global leader in severe and high-impact weather research, and by turning scientific understanding into operational products now used by the National Weather Service, the Storm Prediction Center and others, the work delivers innovative, life-saving forecasts that reduce the impacts of extreme weather on communities. That translation function is the institute’s defining characteristic. Basic research into storm dynamics, radar meteorology, and numerical modeling is pursued not for its own sake but with an explicit eye toward the forecaster’s desk. Matt Hulver, OU’s vice president for research and partnerships, emphasized the same point, noting that few research partnerships have done more to address weather prediction, mitigation and resilience, and that the research does not sit on a shelf but goes straight into the forecasts that keep Oklahomans and communities across the country safe.

Among the institute’s most technically significant recent achievements is its work on adaptive scanning with the Advanced Technology Demonstrator, a phased array radar research platform operated with the National Severe Storms Laboratory. Conventional weather radars sweep mechanically through a full volume of the sky in a fixed pattern, spending as much time staring at clear air as at the storm that matters. Phased array radar instead steers its beam electronically, and the adaptive scanning techniques demonstrated on the ATD allow the radar to automatically focus its attention on important storms while skipping regions of clear skies. The payoff is dramatic: scan times are slashed by up to 90 percent, which means forecasters receive updates on fast-moving tornadoes and severe thunderstorms far more frequently than legacy scanning strategies allow. In a tornado situation, where a storm can traverse a county in minutes and evolve in seconds, the difference between a radar update every few minutes and one nearly continuous can translate directly into additional warning lead time for people in the storm’s path.

Equally consequential is CIWRO’s contribution to the Warn-on-Forecast System, developed in collaboration with the National Severe Storms Laboratory. Traditional severe weather warnings have historically been built on observations: a radar detects rotation, and a warning follows. Warn-on-Forecast inverts that logic by running rapidly updating, high-resolution numerical weather models that blend the latest radar and other observations into short-term forecasts of individual storms, designed to give the National Weather Service earlier watches and warnings before hazards fully materialize. The system represents a shift toward probabilistic, convection-allowing prediction at the scale of the thunderstorm itself, a computational challenge that requires assimilating enormous volumes of radar data into models running at horizontal grid spacings fine enough to resolve storm-scale structure. The significance of this work was recognized at the federal level with a U.S. Department of Commerce Gold Medal, one of the department’s highest honors.

The institute’s record of moving research into practice is measurable. Since 2021, CIWRO teams have developed more than 55 algorithms and products that NOAA has transitioned into operational use. That figure captures a broad sweep of activity across the institute’s portfolio, from tools that help forecasters interpret dual-polarization radar signatures to decision aids that structure how warnings are issued and communicated. Each transitioned product represents the endpoint of a deliberate process: a scientific insight, validated through field campaigns and retrospective case studies, is hardened into software, tested against operational constraints, and handed to forecasters with training and documentation. In an era when the volume of meteorological data far exceeds what any human can absorb unaided, such tools have become essential intermediaries between the raw observation stream and the warning decision.

The renewal also comes with a forward-looking research agenda. Over the next five years, McFarquhar said, CIWRO will focus on weather radar and observations, storm-scale and mesoscale modeling, forecast improvements, and subseasonal to seasonal forecasting. That last area extends the institute’s reach beyond the minutes-to-days horizon of severe weather warning into the weeks-to-months range, where forecast information can inform agriculture, water management, and long-range planning. Determining the societal impacts of research will also be key to the institute’s work, an acknowledgment that a forecast only saves lives if people receive it, understand it, and act on it. As will increasing the use of machine learning tools to quickly pull data from historical weather accounts, tapping archives of past storms that are too vast for manual analysis but rich with patterns that modern algorithms can extract to improve future prediction.

Beyond its research mission, CIWRO functions as one of the nation’s most important training grounds for the atmospheric science workforce. Since 2021, the institute has supported 32 postdoctoral researchers, 47 graduate students and 130 undergraduates, embedding young scientists in an environment where the distance between a research question and an operational consequence is measured in footsteps rather than flight miles. The institute also delivers in-person and online training to National Weather Service forecasters through the NWS Human Capital Management Division, ensuring that the operational workforce stays current with the latest science as new tools and techniques enter service. This dual role, producing both new science and the people equipped to apply it, multiplies the return on the federal investment and helps explain why the partnership has survived and deepened across five decades and multiple generations of technology, from the earliest Doppler radar experiments to today’s phased array and machine learning systems.

Robert Palmer, dean of OU’s College of Atmospheric and Geographic Sciences and director of the National Weather Center, framed the renewal as a strengthening of that longstanding relationship, saying the institute is a cornerstone of the university’s leadership in weather research and of the unique research and operational community at the National Weather Center, and that the five-year renewal ensures OU will continue advancing weather science, improving operations and helping protect lives and property. As extreme weather events grow costlier and the demand for precise, actionable forecasts intensifies across the country, the extension of the OU-NOAA partnership through 2031 secures the institutional machinery on which much of the nation’s severe weather warning capability depends. For the researchers, forecasters, and students of Norman, Oklahoma, the work now continues with a mandate that is both familiar and renewed: to understand the atmosphere’s most dangerous behavior and to make sure that understanding reaches the public in time to matter.

Subject of Research: Renewal of the University of Oklahoma and NOAA cooperative institute partnership for severe and high-impact weather research

Article Title: University of Oklahoma, NOAA partnership continues life-saving research with five-year renewal

Article References: University of Oklahoma, NOAA partnership continues life-saving research with five-year renewal. (n.d.). Original publication

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Keywords: University of Oklahoma, NOAA, CIWRO, severe weather, phased array radar, Warn-on-Forecast, National Weather Service, weather forecasting, Storm Prediction Center, machine learning, tornado warnings, research funding