James W. Wilson establishes a scholarship to support the next generation of atmospheric observers
For decades, James W. Wilson has been at the forefront of observational meteorology, helping expand how scientists interpret and apply atmospheric data. Best known for pioneering work with Doppler weather radar, Wilson’s research helped reveal how radar could be used not only to observe precipitation but also to infer wind fields by detecting insects carried by the flow of the atmosphere. That insight opened new possibilities for understanding storm development and improving short-term forecasts.
Over the course of a long career at the National Center for Atmospheric Research (NCAR), Wilson’s work has contributed to advances that are now widely used by forecasters and researchers alike. Yet even as technology and modeling capabilities have accelerated, Wilson has remained a strong advocate for maintaining a deep connection to the observations that underpin atmospheric science.
To help ensure that future scientists maintain that connection, Wilson recently established the James W. Wilson Scholarship Fund through the American Meteorological Society. The endowed fund will support undergraduate or graduate students working with observational data analysis or preparing for careers centered on atmospheric observations.
For Wilson, the scholarship reflects a simple but powerful belief: that careful observation of the atmosphere remains essential to scientific progress.
What first sparked your interest in observational data analysis, and how did it shape your career path?
My interest in weather began very early. Starting in grade school, I kept my own weather records, carefully noting daily conditions and trying to understand how patterns changed over time.
A defining moment came in 1949, when I was 12 years old and living in South Dakota. The great blizzard of 1949 struck the region, bringing nearly a week of snow and winds approaching 70 miles per hour. Experiencing that storm firsthand left a lasting impression. From that point forward, I knew I wanted to become a meteorologist.
After graduate school, I began my professional career at the Travelers Research Center—later called the Center for Environment and Man—in Hartford, Connecticut. Even then, I had long hoped to work at the National Center for Atmospheric Research. Eventually I had the opportunity to join NCAR, and I remained there for the rest of my career.
Throughout those years, my research centered on the use of Doppler weather radar and the insights it could provide into the behavior of the atmosphere.
What would you say is your major discovery in the use of Doppler radar?
One of the discoveries that proved particularly important was realizing that Doppler radar often detects insects in the atmosphere. Because insects are carried by the wind, their motion can be used as a tracer for the surrounding air flow.
That meant the radar was not simply observing precipitation—it could also be used to observe the wind field itself. Recognizing that opened the door to new ways of studying atmospheric motion and improved our ability to interpret radar data.
Over the course of your career, how have you seen the application of Doppler radar evolve?
Once scientists understood that Doppler radar could be used to observe wind fields, it became possible to better anticipate where and when thunderstorms might develop.
Over time, this knowledge helped improve forecasting techniques and now plays an important role in operational meteorology. Local NOAA forecasters routinely use Doppler radar data and related tools to monitor atmospheric motion and assess storm development in real time.
Seeing those ideas move from research into everyday forecasting practice has been very rewarding.
Why is it important to encourage students to maintain a strong background in observational meteorology?
Today there is a strong tendency for graduate students to focus primarily on developing and running computer models. Modeling is an important part of atmospheric science, but it can sometimes become the primary focus because it is easier to work with and can lead to quicker results.
The risk is that students may lose touch with the real-world observations that those models ultimately depend on.
Observational meteorology requires patience and careful analysis, but it provides a direct connection to the atmosphere itself. Maintaining that connection is essential for building a complete understanding of how the atmosphere works.
Why was it important to you to establish a scholarship specifically focused on students pursuing observational data analysis?
As I mentioned, there is a growing tendency for students to work primarily with models rather than with real observational data.
I wanted to encourage students to spend time working directly with the data collected from instruments such as Doppler radar. Observations remain the foundation of atmospheric science, and there are still many discoveries to be made by carefully analyzing them.
The scholarship is intended to support students who are interested in that type of work.
What does it mean to you personally to have a scholarship bearing your name?
What matters most to me is the possibility that it might make a difference for a student.
Perhaps the scholarship will encourage someone to become excited about working with Doppler radar or other observational tools. That student might go on to discover new ways of using those observations, including improving forecasts of when thunderstorms will form, where they will develop, and how intense they might become.
Knowing that the scholarship might help inspire that kind of work is very meaningful.
Why did you feel it was important to endow the fund to ensure long-term impact?
Endowing the scholarship helps ensure that it will continue to support students well into the future.
My hope is that it will encourage generations of students to pursue observational meteorology and continue advancing our understanding of the atmosphere.
What qualities or passions do you hope to see in students who receive this scholarship?
I hope the students who receive the scholarship are genuinely excited about working with observational data, particularly Doppler radar.
More importantly, I hope they want to make a difference in improving weather forecasting and in advancing the science behind it.
What advice would you offer to students preparing for careers in observational data analysis today?
One of the best things students can do is participate in field programs whenever possible.
Field projects provide hands-on experience with instruments and data collection, and they also offer an opportunity to meet other scientists who share similar interests. Those connections often become important collaborations later in a career.
How do you hope this scholarship will influence the future of the atmospheric sciences community?
My hope is that it will help maintain a strong community of scientists focused on observational meteorology.
Observations are the foundation of our understanding of the atmosphere, and maintaining that expertise is essential for the continued advancement of the field.
When you look ahead 10 or 20 years, what would success for the James W. Wilson Scholarship Fund look like to you?
Success would simply mean that a number of students were able to take advantage of the scholarship and pursue work in observational meteorology.
If even a few of those students go on to make important discoveries or contribute to improvements in forecasting, then the scholarship will have served its purpose.