My research is broadly focused at the intersection of protein engineering, biocatalysis, and materials. We are specifically interested in how the convergence of these areas can lead to new opportunities to discover enzymes with improved properties and impart materials with biological function. Such opportunities have enabled the repertoire of synthetically important reactions catalyzed by enzymes to be significantly expanded. Additionally, through understanding and controlling the interaction of proteins with materials, it is feasible to design materials that sense and destroy toxic chemicals, resist fouling and self-repair, improve tissue engineering, and meld seamlessly with the body. A major element of this research, which is highly multi-disciplinary, is to address fundamental questions about the function and fate of proteins in non-native and harsh conditions. These questions are addressed using an amalgamation of biochemical, biophysical, and structural determination techniques.
Biocatalysis, Nonaqueous enzymology, Protein structure and function at material interfaces, Protein engineering, Biofuels, Tissue engineering, Bioremediation
CHEN 3010 - Applied Data Analysis
Teaches students to analyze and interpret data. Topics include engineering measurements, graphical presentation and numerical treatment of data, statistical inference, and regression analysis.
CHEN 4830 - Chemical Engineering Biokinetics
Introduces chemical kinetics, chemical reactor design, and biological kinetics. Involves mass and energy balances for steady-state and transient reactor systems. Also covers residence time distribution, mass transfer, catalytic reactions, multiple steady states in reactors, enzyme kinetics, metabolic networks, and cell growth kinetics.