Chemistry Research @ MHC

New in 2021-2022: all students should use the Chemistry department's Research Application Form to apply to the labs below!

*Last updated February 2020

Chemistry Department

Faculty Research Information

Spring 2020


Wei Chen’s group works on research projects in the areas of materials engineering and surface chemistry. We use multidisciplinary tools from physical, analytical, and organic chemistry to address relevant issues, such as wetting, adhesion and biocompatibility. 

Interested in learning more or joining the lab?


Katie Berry’s research group asks questions at the interface of biochemistry and bacterial molecular genetics. We study the molecular mechanisms of bacterial regulatory RNAs and their protein chaperones. With a newly developed genetic assay to detect protein-RNA interactions inside of living bacterial cells, we can study the effects of point mutations on RNA-protein interactions and conduct unbiased screens to find mutations that alter RNA-protein binding, or even to identify novel RNA chaperone proteins!

Interested in learning more or joining the lab?


Katie McMenimen’s research group is interested in questions broadly related to protein-protein interactions.  We use many tools from biochemistry, chemistry, molecular biology, and materials chemistry to probe fundamental questions about the structure and function of proteins, focusing on proteins involved in aggregation diseases.  Students in our research group have backgrounds in chemistry, biochemistry, and neuroscience.  

Interested in learning more or joining the lab?


Maria Gomez’s research group focuses on finding conduction pathways in a variety of systems.  We use ideas from thermodynamics, statistical mechanics, classical mechanics, and quantum mechanics in our work.  Our research also entails using and developing mathematical ideas within physical contexts.  

Interested in learning more or joining the lab?


Alan van Giessen’s research group focuses on using molecular simulation to determine the factors that affect the stability of proteins in the dense cellular environment. We have two main directions to our work. Firstly, we are interested in how protein-protein interactions, both through direct intermolecular interactions and through excluded volume effects, affect the thermal and thermodynamic stability of a given protein. Secondly, we are concerned with the phenomenon of cold denaturation, when a protein spontaneously denatures at cold temperatures, and how the crowded cellular environment prevents this from happening in living organisms. 

Interested in learning more or joining the lab?


Kyle Broaders’ research group is focused on the interface of polymeric materials and living cells. He and his group use techniques from organic, polymer, and materials chemistry to make polymeric materials that respond to or influence the behavior of biological entities. Applications of our work include immunotherapy, drug delivery, biosensors, and the study of cellular adhesion. 

Interested in learning more or joining the lab?