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PhD Researcher · Rice University
Chemical & Biomolecular Engineering
Investigating how molecular-scale interactions shape the behavior of complex materials and biological systems.
Research
From molecular interactions to measurable performance, this work seeks principles that explain—and ultimately help design—complex chemical and biological systems.
Research direction
My thesis develops a fully three-dimensional, orientation-resolved iSAFT-CDFT framework for describing rigid, higher-order association and dipole-coupled interactions in spatially inhomogeneous fluids. Validated against molecular simulation, the framework will determine how bonding geometry and molecular architecture govern network formation, interfacial structure, and the self-assembly of biologically relevant polymers, micelles, and vesicles. The central thesis is that explicitly resolving molecular orientation and association geometry captures structural behavior that conventional orientation-averaged theories cannot represent.
Developing vector-based association models within the iSAFT framework.
Explore topic 02Extending iSAFT methods to model complex molecular systems in three dimensions.
Explore topic 03Investigating how polarization and electrostatic interactions shape molecular behavior.
Explore topic 04Using molecular dynamics simulations to study structure, motion, and interactions at the molecular scale.
Explore topic 05Modeling the organization and behavior of micelles and lipid bilayers.
Explore topicSelected work
Peer-reviewed research, conference contributions, and emerging work.
No papers in this section yet.
About
I am a doctoral researcher in Chemical and Biomolecular Engineering at Rice University. My work combines fundamental science, quantitative analysis, and collaborative experimentation to understand complex systems.
Notes & news
Research milestones, teaching, conference notes, and life in the lab.
New notes will be added as they become available.