KENNESAW, Ga. | Dec 2, 2020
ʯֱ’s Office of Research is hosting a one-hour web show every other Friday at 4 p.m. to showcase the varied research being conducted by ʯֱ faculty members. “” spotlights Kennesaw State researchers in a live interview followed by an interactive question-and-answer session with the virtual audience.
In this week’s episode, Mario Bretfeld, assistant professor of in the , will discuss his research on the thermo-biological properties of organic and conventional tomatoes grown at the . Before the presentation, Bretfeld answered a few questions about his interest in research and the ways in which he involves students.
I’ve always been a nature enthusiast. There are some old notes describing the life cycle of butterflies somewhere in my parents’ attic from when I was about 10 years old. After some career detours, I finally settled on studying landscape ecology, which set the foundation to my academic career in biology.
Of course many people influenced me throughout my career. Perhaps most pivotal in recent years was working with Dr. Brent Ewers from the University of Wyoming, which shifted my approach to research and teaching toward emphasizing first principles.
If I had to name one moment that reinforced me in my decision to pursue this career, it would be a backcountry field trip in Yellowstone National Park in 2009. Camping in undisturbed nature under the stars all but cemented my desire to understand and help protect the natural environment.
Besides support from my amazing colleagues in the department, I’ve been fortunate to collaborate across departments and receive some internal funding to help with pilot studies. Most importantly, the ʯֱ Field Station and its staff have been critical in establishing my research here at ʯֱ and were a major factor in my decision to join the ʯֱ family.
I am a strong advocate for the CURE (Course-based Undergraduate Research Experience) approach to teaching labs. Our current project on thermo-biological properties of tomatoes at the ʯֱ Field Station integrates students from two biology courses. In fact, the students collect data not only for the sake of learning the methodology and scientific method, but their data (and analyses) will actually inform real science!
I want my students to gain a mechanistic understanding of biological processes, rather than memorizing them. Nowadays, your smart device enables you to find the answer to the formula for photosynthesis anytime and anywhere. However, understanding (and most importantly predicting) how this process is affected by changes in temperature or atmospheric carbon concentrations requires a deeper understanding of the underlying mechanisms of photosynthesis.
Besides being frequently asked which trees to plant in their backyard (to which I hardly ever know the answer), many plant ecophysiologists (including me) lack a green thumb. However, we are really good at watching and making plants suffer in order to better understand how they function.
Recent technological advances, both in terms of hardware and software, have enabled us to create and test increasingly complex models of ecosystem processes, such as carbon sequestration and water cycling. In fact, an abundance of complex ecosystem and process-based models now has modelers begging for more field data to test them. This is exciting because I truly love field work.
A leader in innovative teaching and learning, ʯֱ offers undergraduate, graduate and doctoral degrees to its more than 47,000 students. Kennesaw State is a member of the University System of Georgia with 11 academic colleges. The university’s vibrant campus culture, diverse population, strong global ties and entrepreneurial spirit draw students from throughout the country and the world. Kennesaw State is a Carnegie-designated doctoral research institution (R2), placing it among an elite group of only 7 percent of U.S. colleges and universities with an R1 or R2 status. For more information, visit kennesaw.edu.