Cambridge, Massachusetts, United States
Postdoctoral Fellow at MIT (Robert Langer & Ana Jaklenec) developing programmable microfluidic systems for next-generation mRNA and protein drug delivery. PhD in Applied Physics from Harvard (David Weitz), specializing in synthetic biomaterials and high-throughput microfluidics. Working at the intersection of biomaterials, AI-driven design, and therapeutic engineering.
I am developing novel drug delivery systems for mRNA based vaccines and therapeutics. Specifically, I develop novel polymer and lipid formulation for delayed and sustainable release of mRNA for boosted immunological responses.
High-throughput microfluidic synthesis and screening of biomaterials for drug delivery applications. Engineered synthetic cell–inspired systems using scalable microfluidic platforms. Developed physics based machine learning tools for analysis and optimization of material structure–function relationships.
High-throughput microfluidic synthesis and screening of biomaterials for drug delivery applications. Engineered synthetic cell–inspired systems using scalable microfluidic platforms. Designed and built advanced bioinstrumentation for automated fabrication and real-time analysis. Applied soft matter physics, image-based AI, and machine learning to uncover and optimize material structure–function relationships.