| Julie Biteen | |
| Birth Name: | Julie Suzanne Biteen |
| Workplaces: | Stanford University |
| Alma Mater: | California Institute of Technology Princeton University |
| Thesis Title: | Plasmon-Enhanced Silicon Nanocrystal Luminescence for Optoelectronic Applications |
| Thesis Url: | http://www.worldcat.org/oclc/654925949 |
| Thesis Year: | 2006 |
Julie Suzanne Biteen is a Canadian-born American chemist who is professor of chemistry and biophysics at the University of Michigan. Her research considers the development of imaging systems for biological systems. She was named the Stanford University Sessler Distinguished Alumni Lecturer in 2021.
Biteen was born in Montreal.[1] Her father worked in Human Resources and her mother was a librarian. As a child she enjoyed mathematics and thought that she might become a civil engineer. During her undergraduate studies she became fascinated by fundamental scientific research. Biteen majored in chemistry at Princeton University and worked under the supervision of Hershel Rabitz, where she studied maps for quantum control. After completing her bachelor's degree she moved to the California Institute of Technology (Caltech), where she worked toward a master's in applied physics.[2] She stayed at Caltech for her doctoral research, working alongside Harry Atwater and Nathan Lewis. Her doctoral research considered nanoparticle plasmonics and quantum dot optoelectronics.[3] She joined Stanford University as a postdoctoral scholar, where she worked on super-resolution imaging with William E. Moerner. As a postdoc she developed photoactivated localization microscopy systems to image Caulobacter crescentus, acquiring the first images of MreB, a protein found in bacteria.
Biteen was appointed to the faculty at the University of Michigan in 2010. She investigates microbial cell biology using advanced imaging techniques such as single-molecule and super-resolution imaging.[4] In particular, single-molecule microscopy can provide nanoscale information about biological processes. She has used these techniques to understand how proteins recognise and bind histones during transcriptional silencing and to reveal information about the gut microbiome.[5] At the same time she has studied how plasmonic metal nanoantennas reshape the fluorescence of nearby molecules.[6]