My research focuses on a class of proteins called intrinsically disordered proteins. Unlike most well-studied proteins, such as those responsible for immunological responses, catalysis, and DNA replication, disordered proteins have no rigid three-dimensional structure and are instead highly dynamic. Despite their high prevalence in diseases such as Alzheimer’s, cancer, and diabetes, these proteins receive little attention, likely a result of how difficult they are to observe experimentally. My doctoral research will combine experimental methods with high-powered modelling techniques to understand these proteins and their relation to disease. Originally from Chicago, I attended Pomona College, where I double majored in chemistry and mathematics. There, I studied topics ranging from protein-ligand binding to topological complexity in protein structures (such as knots and links). My love of working at the intersection of biochemistry, math, and physics led me to begin working with Professor Michele Vendruscolo at the University of Cambridge as a Churchill Scholar, where I am combining computational methods with experimental techniques to understand the interactions between disordered proteins and therapeutic drugs. I am keen to improve the ways in which biochemists obtain information about protein function and stability and am intrigued by the potential of such work to have direct implications on our understanding and treatment of disease.
Pomona College
University of Cambridge