Next Generation Chemicals and Materials

Sang Yup Lee

Distinguished Professor, Director and Dean Korea Advanced Institute of Science and Technology (KAIST), Korea, Republic of

"Reducing reliance on fossil fuels by producing chemicals, fuels and materials from non-food renewable biomass employing engineered high performance cells." Sang Yup Lee

 

 

Full bio, links and summary
"Reducing reliance on fossil fuels by producing chemicals, fuels and materials from non-food renewable biomass employing engineered high performance cells." Sang Yup Lee Full bio, links and summary

Speaker

Sang Yup Lee, PhD, is a Distinguished Professor at the Department of Chemical and Biomolecular Engineering at the Korea Advanced Institute of Science and Technology (KAIST). He serves as Director of BioProcess Engineering Research Center, Bioinformatics Research Center, and Center for Systems and Synthetic Biotechnology. Professor Lee also serves as a Co-Director of the new institute called the Institute for the BioCentury at KAIST. He is currently Dean of the College of Life Science and Bioengineering. He has published 366 journal papers, 51 books/book chapters, and 524 patents—either registered or applied. He received numerous awards, including the National Order of Merit, Merck Metabolic Engineering Award from Merck, and Elmer Gaden Award from Biotechnology and Bioengineering. He is currently Fellow of AAAS, Fellow of American Academy of Microbiology, Fellow of Society for Industrial Microbiology, Fellow of Korean Academy of Science and Technology, Fellow of National Academy of Engineering Korea, Foreign Associate of National Academy of Engineering USA, Editor-in-Chief of Biotechnology Journal, and Associate Editor and board member of numerous journals. His research interests are systems biology and biotechnology, industrial biotechnology, metabolic engineering, and nanobiotechnology. 

Presentation Summary

 In the face of human induced climate change, scientists need to explore alternative fuel and chemical production methods that rely less on fossil fuels. One option is to harness the natural ability of cells to produce useful chemicals, fuels, and polymers from renewable biomass. With metabolic engineering the capacity of cells to produce desired chemicals can be optimised to achieve efficient production.With the use of a metabolically engineered strain of E.coli, for example, a one stage biorefinery process can produce polylactic acid and its copolymers through direct fermentation. This makes the renewable production of PLA and lactate-containing copolymers cheaper and more commercially viable.