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John T. Groves
Bioorganic and bioinorganic chemistry, synthetic and mechanistic studies of reactions of biological interest, transition metal redox catalysis, models and mimics of metalloenzymes, biochemical mechanisms of protein nitration, the chemical biology of iron acquisition by siderophores and models of biological membranes. Affiliated with the Princeton Institute for the Science and Technology of Materials (PRISM) and the Center for Environmental Bioinorganic Chemistry (CEBIC) |
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Abigail Doyle
Organic and organometallic chemistry: discovery and development of new catalytic routes to chiral building blocks of importance in the enantioselective synthesis of natural products, pharmaceuticals, and materials. |
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David MacMillan
Organic synthesis and catalysis: new concepts in synthetic organic chemistry involving organocatalysis, organo-cascade catalysis, metal-mediated catalysis, and total synthesis of natural products and pharmaceuticals. |
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Paul Reider
Identification of new chemical entities directed at both Mycobacterium Tuberculosis and Plasmodium Falciparum (Malaria). |
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Martin F. Semmelhack
Application of organic chemistry to problems in biology. The chemistry of bacterial signaling. Isolation and structure determination of new signaling molecules, synthesis of the signals and analog structures, and evaluation of their biological activity. |
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Erik J. Sorensen
Organic chemistry, chemical synthesis of bioactive natural products and molecular probes for biological research, bioinspired strategies for chemical synthesis, architectural self-constructions, novel methods for synthesis. |
