"By developing a strategy which combines metabolic engineering and enzyme engineering, we've developed an efficient bio-based one-step production process for PLA and its copolymers,"[caption id="attachment_642" align="alignright" width="150" caption="Professor Sang Yup Lee"][/caption] Now, Professor Lee will be presenting this process and other parts of his research in an SBE Webinar. His talk, “Systems Metabolic Engineering” will be presented on April 22, 2010 from 11a.m. to 12p.m. EDT. Professor Lee will discuss the paradigm shift in biological engineering and biotechnology research that has led to systems biology and synthetic biology being used to decipher and redesign microorganisms. Tune in to learn more about his research. More information is available here. I expect systems metabolic engineering to become an essential technology for providing sustainable chemicals, fuels and materials in the future. Do you have any thoughts on metabolic engineering? Please share.
Log in Follow us
March 19th, 2010
This post is presented by SBE, the Society for Biological Engineering—a global organization of leading engineers and scientists dedicated to advancing the integration of biology with engineering. Biological Engineering has the potential to provide solutions to many of the challenges that face the world today. A path towards sustainability is using renewable resources to produce chemicals, fuels and materials that are currently based on fossil oils. One way to do this sustainably is by reengineering the metabolism of microorganism to help us make these products. South Korean scientists made waves in late 2009 when they announced their bioengineering breakthrough production of Polyactic Acid or PLA, a polymer used in everyday plastics. The research could lead to the economical development of environmentally friendly plastics. CNN picked up the story, as did the Economist. The paper was published in two papers in Wiley’s Biotechnology and Bioengineering. Professor Sang Yup Lee at the Korean Advanced Institute of Science and Technology (KAIST) led the team that engineered E. coli to produce PLA. They developed a one-stage process which produces polylactic acid and its copolymers through direct fermentation. This will make renewable production of PLA cheaper and more commercially viable. CNN quoted Lee: