| Shu-ou Shan | |
| Birth Place: | Shanghai |
| Workplaces: | California Institute of Technology |
| Alma Mater: | Stanford University University of Maryland, College Park |
| Thesis Title: | Energetic analysis of hydrogen bonds in model systems : implications for enzymatic catalysis |
| Thesis Url: | https://searchworks.stanford.edu/view/5556630 |
| Thesis Year: | 1999 |
| Doctoral Advisor: | Daniel Herschlag |
| Academic Advisors: | Peter Walter |
| Website: | Shan Lab |
Shu-ou Shan is a Chinese American biologist who is a professor at the California Institute of Technology. Her research combines mechanistic enzymology with biophysical characterization techniques (e.g. Cryo em and fluorescence spectroscopy) to understand biogenesis pathways. She was awarded the 2024 National Academy of Sciences Award in Molecular Biology.
Shan was born and raised in Shanghai. She moved to the United States after high school, and studied chemistry at the University of Maryland, College Park. She was a doctoral researcher at Stanford University, where she worked alongside Daniel Herschlag on RNA catalysis.[1] She was first introduced to mechanistic enzymology there. She moved to University of California, San Francisco as a postdoctoral researcher, where she worked with Peter Walter on cell biology.
In 2005, Shan joined the faculty at California Institute of Technology. Her science is driven by questions about how cells control biological processes and the molecular principles that underpin biological recognition and mechanisms that define protein delivery.
Shan looks to understand the molecular mechanisms of co-translational protein machineries; including folding, assembly, targeting and biogenesis.[2] Co-translational describes processes that occur at the same time as translation during protein synthesis.[3] Using an array of biophysical characterization techniques, Shan looks to build a model that can predict what happens to nascent proteins as they emerge from the ribosome and their environment impacts these processes.[4]
Shan studies molecular chaperones (proteins that assist in the folding or unfolding process) and how they protect proteins from mis-folding, sometimes even repairing mis-folding or aggregation.