Karen Brewer earned a doctorate from Massachusetts Institute of Technology. She came to Hamilton College in 1989 and teaches undergraduate courses in advanced and intermediate inorganic chemistry and general chemistry. Brewer's main research project is in collaboration with Hamilton Physics Professor Ann Silversmith and Professor Dan Boye of Davidson College. In Brewer's chemistry lab, students create glass that contains rare earth ions that have interesting spectroscopic properties. The glass is then probed in the laser spectroscopy labs in physics. Her research has been funded by the Research Corporation and the Petroleum Research Fund of the American Chemical Society.
Myriam Cotten earned a doctorate in chemistry from Florida State University. Cotten’s research interests include the use and development of biophysical and biochemical techniques such as magnetic resonance to study the structure, function and mode of action of membrane-interacting peptides and proteins. Her current research focuses on antimicrobial and anticancer peptides. Her long-term goal is to identify common principles that will facilitate the design of pharmaceuticals with enhanced antibacterial and anticancer activity and low toxicity for mammalian cells. The Dreyfus Foundation, National Science Foundation and Research Corporation have supported Cotten’s research.
Farah Dawood completed postdoctoral research at The Center for Integrated Nanotechnologies at Los Alamos National Laboratory, where she developed new lithographic methods for spatially organizing soft materials, in particular, for enabling applications in next-generation quantum computing. Prior to that, she was a postdoctoral researcher in physical chemistry at the University of Maryland, where she studied new nanofabrication methods using ultra-fast lasers to design biomolecular scaffolds and sensors. Dawood earned her Ph.D. in materials chemistry at Penn State, focusing on colloidal routes for the predictable and controllable synthesis of metastable nanoparticles using crystal structures as templates. She earned a bachelor’s degree in chemistry from Concordia College, Moorhead. At Hamilton, Dawood will develop the experimental physical chemistry curriculum and initiate a research program grounded in nanolithography for designing optically active materials for manipulating light, and sensors for detecting low concentrations of biomolecules.
Max Majireck completed his postdoctoral research in chemical biology at Harvard University and the Broad Institute of MIT & Harvard, designing small molecules to study disease biology, particularly cancer. He was selected for a fellowship from the Leukemia & Lymphoma Society. Majireck earned his doctorate in organic chemistry from Penn State. At Hamilton, he combined his passion for teaching, mentoring and research by designing a new course to highlight the role of organic synthesis in human health. He's also designing a research program that investigates new chemical transformations to produce tool compounds for studying neurological disorders.
Ian Rosenstein joined the Hamilton faculty in 1994 after completing his Ph.D. and a year of postdoctoral study at Duke University. His research focuses on the development on new methods for the synthesis of organic compounds using free radicals as key reactive intermediates. Much of Rosenstein's work has explored the use of chiral auxiliaries for controlling the stereochemistry of radical addition reactions. His current work is aimed at developing methodology that combines radical processes with metal-catalyzed coupling reactions to construct multiple carbon-carbon bonds in a single reaction sequence.
Adam W. Van Wynsberghe joined Hamilton College in 2009 after two years at the University of California, San Diego, where he was a National Institutes of Health National Research Service Award postdoctoral fellow. He was a National Science Foundation predoctoral fellow at the University of Wisconsin - Madison, where he completed his doctorate in biophysics. Van Wynsberghe's research interests center around the use of theoretical and computational techniques to study biophysical problems from both basic and applied perspectives. Currently, he is investigating the nature of protein-protein and protein-ligand interactions, the origins and roles of conformational changes and dynamics in biomolecular systems and the dynamical aspects of enzyme catalysis.
Robin Kinnel has a Ph.D. in chemistry from MIT. An organic chemist, he pursued research in physical organic chemistry but became captivated by the chemistry of natural products, particularly from the marine environment. His fascination with the marine environment led to work at the University of Hawaii and publications about naturally occurring compounds with unusual structures and promising biological activity. Most recently he has studied the structures of small peptides in solution, carrying out syntheses of compounds isolated from cyanobacteria, and attempting to synthesize peptidomimetics useful against breast cancer.