Dr. F. Dean Toste's lab at UC Berkeley focuses on creating new methods for synthesizing organic compounds that can be used in medicine. The lab mainly develops new reactions using special catalysts to construct important chemical bonds, particularly those involving fluorine. Researchers also investigate how non-covalent interactions influence chemical selectivity, aiming to improve tools for chemists and biomedical researchers.

Professor John F. Hartwig's lab at UC Berkeley focuses on developing innovative chemical reactions that are essential for creating new medications. The lab works with transition metals to discover new catalysts that can streamline the production of important organic compounds, particularly those that target specific parts of complex molecules. This research aims to deepen our understanding of how these catalysts operate, leading to more effective and efficient synthetic methods in medicinal chemistry.

The Nomura Research Group at UC Berkeley is dedicated to discovering new cancer treatments by addressing the challenge of 'undruggable' proteins that do not have known binding sites. They are developing innovative technologies and methodologies to create next-generation therapies that can target these difficult proteins. The lab combines advanced techniques in chemistry and biotechnology to explore how these proteins can be therapeutically manipulated for cancer therapies.

Richmond Sarpong's lab at UC Berkeley focuses on developing innovative methods to synthesize complex natural products, which are important for creating new medicines. The research aims to enhance our ability to build molecules that can treat diseases like cancer, inflammation, and pain. By exploring new strategies for combining different chemical bonds, the lab hopes to find novel therapeutic options and improve existing treatments.

Dr. Judith P. Klinman's lab at UC Berkeley focuses on understanding how enzymes work at a molecular level, particularly how their movements influence their ability to catalyze chemical reactions quickly. The research involves studying the mechanics of enzymes, including those that are critical for producing important biological compounds. This work not only sheds light on basic biochemistry but also has practical implications, such as designing new antibiotics.