Research in our group focuses on using new spectroscopic techniques to probe chemistry at the ultimate limits of space and time. We investigate fundamental and applied issues in membrane protein biophysics, alternative energy sources, and nanotechnology, determining how local environments affect chemistry. Currently, we are working on developing a label-free, super-resolution imaging technique to monitor cells on the nanometer length scale, determining the role of vibrations in driving electron transfer reactions, and using plasmonic nanomaterials to monitor and catalyze chemical reactions. Our research is highly interdisciplinary, investigating current problems at the interface of chemistry, biology, and materials science.


Recent News and Publications

Plasmon-Driven C–N Bond Cleavage Across a Series of Viologen Derivatives

Brooks, J. L., Chulhai, D. V., Yu, Z., Goodpaster, J. D., Frontiera, R. R. The Journal of Physical Chemistry C2019.


Probing the coupling of butterfly wing photonic crystals to plasmon resonances with surface-enhanced Raman spectroscopy

Palmer, L. D., Brooks, J. L., Frontiera, R. R. The Journal of Materials Chemistry C, 2019


Facile Background Discrimination in Femtosecond Stimulated Raman Spectroscopy Using a Dual-Frequency Raman Pump Technique

Bera, K.; Kwang, S. Y.; Cassabaum, A. A.; Rich, C. C.; Frontiera, R. R. The Journal of Physical Chemistry A2019.

two raman pump