| Surita Rani Bhatia | |
| Workplaces: | University of Massachusetts Amherst Stony Brook University |
| Alma Mater: | University of Delaware Princeton University |
| Thesis Title: | Structure and rheology of associative triblocks in microemulsion solutions |
| Thesis Url: | http://www.worldcat.org/oclc/80783273 |
| Thesis Year: | 2000 |
| Website: | Bhatia Research Group |
Surita Bhatia is an American chemist who is professor and vice provost of faculty affairs at Stony Brook University. Her work considers the structure of soft materials, including polymeric hydrogels and colloidal glasses. She was elected Fellow of the American Institute of Chemical Engineers, the American Institute for Medical and Biological Engineering and the Society of Rheology in 2020.
Bhatia was an undergraduate studied at the University of Delaware. She majored in chemical engineering, and graduated in 1995. She moved to Princeton University for her graduate studies, where she worked with William B. Russel on the rheology of associative polymers.[1] Bhatia completed her doctoral studies in 2000, and moved to the French National Centre for Scientific Research (CNRS) Complex Fluids Laboratory as a postdoctoral researcher.[2]
Bhatia joined the faculty at the University of Massachusetts Amherst in 2001, where she was awarded an National Science Foundation CAREER Award to study soft attractive gels.[3]
At UMass, Bhatia developed engineering education programme that taught about equity, diversity and the societal impacts of engineering.[4] Her teaching materials were selected by the National Academy of Engineering as an example of best practise in education. She has led programs to support underrepresented students in the biomedical sciences.
In 2012, Bhatia joined the department of chemistry at Stony Brook University, where she was promoted to professor in 2015.[5] She holds a joint role as a staff scientist at the Center for Functional Nanomaterials at the Brookhaven National Laboratory.[6]
Bhatia has worked to elucidate structure-properties relationships of complex fluids using ultra small-angle X-ray scattering and ultra small-angle neutron scattering.[7] [8] She combines these techniques with rheology to establish the molecular mechanisms that underpin dynamically arrested states and re-entrant behavior in colloidal systems.