Our Research

We are a multidisciplinary team of chemists and engineers committed to addressing the persistent challenges of carbon emissions and fossil fuel dependence in the chemical and energy industries. Our research, which spans basic and applied sciences, focuses on developing alternative materials and methods that can be practically applied to electrify and reduce the carbon intensity of crucial processes we rely on.

An overarching theme of our research is the use of radiant electromagnetic energy in the form of visible light or alternating electric fields to power chemical transformations. We take advantage of the fact that the electrons contained within molecules and materials respond strongly to this form of renewable energy. In fact, by using electromagnetic fields in chemical reactions, we can produce extremely high electronic temperatures that yield reaction outcomes not seen using more traditional methods. Our group specializes in understanding the interactions of these so-called ‘hot electrons’ with the surfaces of novel catalytic materials.

Our interdisciplinary research redefines how we approach catalyst design by integrating nanophotonics and heterogeneous catalysis elements to develop more energy-efficient and selective routes to chemical transformations of industrial and societal importance. Along the way, we also use our expertise to produce novel sensor technologies, advanced observational tools, and new materials. Our scientific approach combines aspects of nanoscale optics, physical chemistry, chemical engineering, surface science, materials science, and more.

For a glimpse into our team’s expertise and experience, we invite you to explore our Publications page, where you can find specific examples of our past work.