We are interested in understanding the molecular logic by which Nature generates the diversity of biomolecules and applying the acquired knowledge and tools to the problems of biotechnology and medicine. Biomolecular diversity in many levels underlies not only the complexity of biological systems, but the adaptation and evolution of organisms in a new environment. The living organisms, therefore, have developed sophisticated mechanisms to generate and manipulate diverse biomolecules. For example, bacteria and fungi synthesize a vast number of structurally-diverse secondary metabolites (or natural products) by elegantly-organized biosynthetic processes, and mammalian immune system handles enormous number of different antibodies via a multitude of controlled genetic and cellular processes. Our research aims at dissecting various aspects of the generation of biomolecular diversity, and exploiting these Nature’s processes for practical applications.
Searching for novel
RiPP biosynthetic gene cluster
Studying enzymes and biochemistry
related to RiPP biosynthesis
Developing tools for directed evolution &
Finding valuable targets
Discovery of a Two-Step Enzyme Cascade Converting Aspartate to Aminomalonate in Peptide Natural Product Biosynthesis
Discovery of Terminal Oxazole-Bearing Natural Products by a Targeted Metabologenomic Approach
Evolutionary Spread of Distinct O-methyltransferases Guides the Discovery of Unique Isoaspartate-Containing Peptides, Pamtides
Join Our Team!
We welcome highly motivated students and postdocs who are interested in
biochemistry, enzymology, chemical biology, genetics, or structural biology