Catalysis Research
The Hicks Group focuses on the synthesis, characterization, and performance evaluation of solid catalysts aimed at improving the selectivity and efficiency of important chemical processes. Our research emphasizes the design of well-defined, tunable materials, where structure and composition can be precisely controlled through synthesis. We are broadly interested in converting natural and renewable resources into valuable products and in developing new strategies to decarbonize the chemical industry. To support this work, we design and operate non-thermal plasma reactors powered by renewable electricity and capable of operating under ambient conditions, which serve as versatile platforms for evaluating catalyst performance.
Opportunities exist for undergraduate students to participate in experimental catalysis-related projects in the Hicks group. Students will have the opportunity to (1) synthesize new catalysts/materials, (2) measure reaction kinetics, (3) construct new reactors, (4) use infrared spectroscopy to characterize new materials, (5) develop a working knowledge of relevant literature, and (6) communicate research findings with others in the group.
Students will work closely with a graduate student or postdoctoral associate in the Hicks group. The specific project will be determined after consultation with the interested undergraduate student and the Hicks group members.
Details
Our research group is a dynamic, interdisciplinary environment where undergraduate researchers help tackle major challenges in sustainable chemical manufacturing. Students work at the intersection of catalysis, materials science, and electrically driven chemical processes, gaining hands-on experience while contributing meaningfully to ongoing research. Undergraduates are active members of the lab, with opportunities to design experiments, analyze data, and connect fundamental science to real-world applications.
The lab’s research focuses on rethinking how chemicals and fuels are made by developing electrified, low-carbon pathways that rely on Earth-abundant catalysts and renewable energy. This includes projects on CO₂ conversion, biomass upgrading, and plasma-assisted catalysis. Together, these efforts aim to create more efficient, and more accessible alternatives to traditional, energy-intensive chemical processes.
By working in the lab, students gain hands-on research experience and a deeper understanding of how chemistry and engineering can be applied to address pressing societal challenges in energy and sustainability.