When Max Markuson DiPrince embarked on an accelerated master’s degree in physics and sustainable energy sciences, Creighton University’s most prominent solar technology researcher found his man.
Andrew Baruth, PhD, an associate professor in the College of Arts and Sciences, had been kicking around an idea that cooking sugar down into carbon nanodots about one billionth of a meter in size might improve the efficiency of solar panels.
Such is the imaginative world of research, but Baruth needed someone to pursue the idea. When he handed the ball to Markuson DiPrince, a junior from Denver, Colorado, who is a Dean’s Fellow in the Creighton College of Arts and Sciences, Markuson DiPrince carried it all the way to a presentation at the annual conference of the American Physical Society, held virtually in March.
As he perused the participants who would soon hear his PowerPoint presentation, Markuson DiPrince saw representatives of numerous graduate institutions and national laboratories, including Los Alamos National Laboratory in Santa Fe, New Mexico, the National Renewable Energy Laboratory in Golden, Colorado, as well as representatives of Princeton and Harvard universities.
“It was pretty terrifying, I won’t lie,” Markuson DiPrince said. “But it definitely built up my ability to present in an academic environment, which is very important as I build the skills necessary to present and defend a master’s thesis.”
The innovation Markuson DiPrince laid out that day concerned the ability of glucose-based carbon nanodots to transform the ultraviolet light spectrum into green light, which is the ideal form of light for solar cells.
“This is a relatively new direction for our research team, and Max ran the project in its entirety,” Baruth said. “It is quite an achievement for an undergraduate. It is certainly graduate-level work, which is why I’m glad he’s sticking around for his master’s degree.”
Markuson DiPrince is no stranger to solar cell research. He was named a 2019-2020 recipient of a NASA Nebraska Space Grant for similar work investigating the use of glucose-derived carbon to boost the ability of solar cells to generate electrical energy from sunlight.