Elizabeth Repasky is Lawrence J. Minet Professor of Immunology and program leader for the Cancer Stress Biology Program at Roswell Park Comprehensive Cancer Center. She graduated from Seton Hill University with a B.A. in biology, received her Ph.D. from the Buffalo State University and did a postdoctoral fellowship at the California Institute of Technology. Her research on thermal stress and the impact of thermoregulatory pathways on the anti-tumor immune response has been a long-standing passion. Repasky has been recognized as a distinguished biomedical alumna of the Jacobs School of Medicine and Biomedical Sciences at Buffalo State University. She is a recipient of the Dr. Thomas B. Tomasi Hope Award at Roswell Park and of both the J. Eugene Robinson and William C. Dewey Awards for her contributions to the field of thermal medicine.
Elizabeth Repasky
Professor of immunology
Roswell Park Comprehensive Cancer Center
From this contributor
Mouse housing temperatures can cook experimental outcomes
Selected articles
- “Baseline tumor growth and immune control in laboratory mice are significantly influenced by sub-thermoneutral housing temperature” | PNAS
- “Manipulation of ambient housing temperature to study the impact of chronic stress on immunity and cancer in mice” | Journal of Immunology
- “β2 adrenergic receptor-mediated signaling regulates the immunosuppressive potential of myeloid-derived suppressor cells” | Journal of Clinical Investigation
- “Chronic adrenergic stress contributes to metabolic dysfunction and an exhausted phenotype in T Cells in the tumor microenvironment” | Cancer Immunology Research
- “How murine models of human disease and immunity are influenced by housing temperature and mild thermal stress” | Temperature
Explore more from The Transmitter
New phase of BRAIN Initiative spawns basal ganglia ‘parts list’
With a standardized cell naming system and infrastructure for data collection and analysis, the basal ganglia project sets the stage for a whole-brain primate atlas.
New phase of BRAIN Initiative spawns basal ganglia ‘parts list’
With a standardized cell naming system and infrastructure for data collection and analysis, the basal ganglia project sets the stage for a whole-brain primate atlas.
Machine-learning model spots autism-linked variants that scramble splicing
The model provides a way to investigate genetic variation in regions of the genome whose functions have been difficult to interpret.
Machine-learning model spots autism-linked variants that scramble splicing
The model provides a way to investigate genetic variation in regions of the genome whose functions have been difficult to interpret.
Future of AI brain models sparks debate
Neuroscientists are divided about whether foundation models that predict brain responses will help the field understand how brains work.
Future of AI brain models sparks debate
Neuroscientists are divided about whether foundation models that predict brain responses will help the field understand how brains work.