
معرفی
Ryan Baugh serves as Professor of Biology at Duke University's Trinity College of Arts & Sciences, with additional appointments as Associate Professor of Cell Biology and affiliations with the Center for Genomic and Computational Biology and Duke Regeneration Center. His research focuses on phenotypic plasticity in C. elegans using functional genomics and quantitative genetics approaches.
- Ph.D. in Biology from Harvard University (2004)
- B.S. in Biology from University of Georgia (1997)
His laboratory investigates how nutrient availability governs gene regulation and development, particularly through studies of starvation resistance mechanisms across different time scales. Research integrates bulk and single-cell genomics with molecular genetics to understand developmental robustness in variable environments. Key areas include insulin/IGF signaling pathways, transgenerational epigenetic effects, and natural variation in stress responses.
Analysis of recent publications reveals strong emphasis on starvation-induced developmental arrest, PTEN/Rb tumor suppressor networks, and structure-specific toxicity of environmental pollutants using nematode models. Work demonstrates how early-life nutrient stress triggers persistent changes in immunity, metabolism, and germ cell development through conserved molecular pathways.
- New Scholar in Aging Award (Ellison Medical Foundation, 2010)
Baugh secures major funding from NIH and NSF for projects including 'Nutritional Control of Nematode Development' (2025-2030) and 'Molecular Mechanism of Life-History Tradeoffs' (2024-2027). He mentors trainees through multiple institutional training programs and collaborates with environmental health scientists on PFAS toxicity research. His outreach includes hosting underrepresented undergraduates and organizing scientific symposia focused on gene-environment interactions.
The Baugh Lab maintains active collaborations with the Duke Regeneration Center and Center for Genomic and Computational Biology, utilizing advanced genomic technologies including PacBio sequencing and COPAS worm sorters to investigate conserved mechanisms of developmental adaptation.





