Sara Stadulis
Sara Stadulis

Synthetic Biologist

Synthetic biologist translating fundamental research into commercial products. PhD research on platform technologies for cross-kingdom genetic engineering, exploring what makes biology programmable at scale. Increasingly focused on the intersection of AI and biological risk — understanding how advances in synthetic biology reshape biosecurity. Currently a Senior Research Fellow in AIxBiosecurity through the Cambridge Boston Alignment Initiative, working on large language model evaluations.

In my free time, I'm (unsurprisingly) passionate about food culture, including baking, gardening, winemaking, and serving as a Good Food Awards Judge.

Education

Ph.D., Food Science & Technology

Cornell University

Expected Dec 2026

B.A., Biology; Minor: Environmental Science

Middlebury College

Publications

  • Evaluating cellular roles and phenotypes associated with trehalose degradation genes in Saccharomyces cerevisiae, G3 Genes|Genomes|Genetics (2024)View
  • The Sensorial and Chemical Changes in Beer Brewed with Yeast Genetically Modified to Release Polyfunctional Thiols from Malt and Hops, Fermentation (2022)View

Patents

  • Methods and compositions for reduced-ethanol in fermented beverages (2025, Invention Disclosure) — Stadulis, S.E.; Gibney, P.A.
  • Grape Stilbenes for Improved Gut Function and Health (2024, Provisional) — Tako, E.; Agarwal, N.; Stadulis, S.E.; et al.
  • Methods and compositions for gamma-decalactone biosynthesis in fermented beverages (2022, WIPO) — Li, Denby, Roop, Harris, StadulisView

Selected Projects

Yeast Engineering for Fermented Beverages
Yeast Engineering for Fermented Beverages

Engineered and characterized 60+ Saccharomyces cerevisiae strains for novel fermented products, bioprotection, and waste valorization; commercialized 5 of 8 products across wine and maple syrup industries.

Microfluidic Electroporation Platform
Microfluidic Electroporation Platform

Collaborated with MIT MechE to develop a high-throughput microfluidic electroporation device for genetic engineering applications, reducing transformation time by 75%.

Trehalose Degradation Pathway Analysis
Trehalose Degradation Pathway Analysis

Published research evaluating cellular roles and phenotypes of trehalose degradation genes in yeast, contributing to metabolic engineering strategies.

Work Experience

Leadership & Teaching

  • Co-Instructor, Applied Food Microbiology, Cornell University (2025)
  • Founder, Data Science for Food Technology Systems Group (2024)
  • Conference Organizer, Northeast Regional Yeast Meeting (2023)
  • Research Mentor, Gibney Lab, Cornell University (2022–2025)
  • Research Mentor, Berkeley Yeast (2019–2022)

Awards & Honors

  • ASM Future Leaders Mentorship Fellow (2025–)
  • Cornell University Fellowship (2025)
  • NSF Graduate Research Fellowship, Honorable Mention (2024)
  • SynBioBeta Conference Travel Award from Ginkgo Bioworks ($2,700, 2022)

Industry Engagement

  • USDA National Needs Fellowship Program (2024–)

Technical Skills

Genetic Engineering
CRISPR/Cas9, plasmid design, electroporation, microfluidic transformation
Microbial Systems
Saccharomyces cerevisiae, non-conventional yeasts, lactic acid bacteria
Quantitative Biology & AI
growth phenotyping, high-throughput screening, statistical modeling (R, Python), ML for biological design
Analytical Technology
GC-MS, HPLC, flow cytometry, fluorescence microscopy
Translation & Product Dev
pilot-scale fermentation, sensory evaluation, regulatory strategy

Connect

Feel free to contact me at ses438@cornell.edu