Ice nucleation
Understanding the molecular mechanisms behind homogeneous and heterogeneous ice formation.
Phase transitionsChemical engineering · Yale University
I study how ice forms, grows, and interacts with biological molecules.
I'm a PhD candidate in Chemical Engineering at Yale University, working in the Computational Soft Matter group. My research uses molecular simulation and computational analysis to better understand ice formation and prevention.
I’m interested in applying molecular modeling, advanced sampling methods, scientific computing, and machine learning to challenges in biotechnology and materials science.

01 / Research
My work connects molecular-scale interactions to the collective behavior of water. I combine simulation and data-driven analysis to study ice nucleation and the molecules that control it.
Understanding the molecular mechanisms behind homogeneous and heterogeneous ice formation.
Phase transitionsInvestigating how proteins and peptide mimics interact with ice–water interfaces.
Biomolecular designBuilding better reaction coordinates with high-throughput analysis and machine learning.
Methods & computation02 / Selected publication
The Journal of Chemical Physics
A systematic study of how implementation choices affect reaction coordinates used to describe homogeneous and heterogeneous ice nucleation.
Read the journal article03 / Skills & leadership
Python · C++ · MATLAB · Linux · Bash · GROMACS · LAMMPS · PLUMED · VMD · PyMOL
Molecular dynamics · Replica exchange MD · Umbrella sampling · Monte Carlo · Statistical thermodynamics
STEM Career Fellow · Advanced Graduate Leadership Program · Graduate Professional Experience Fellow · Alumni Chair, GradSWE
04 / Projects
From simulation workflows to machine-learning analysis, I care about building methods that are rigorous, reusable, and open to collaboration.
05 / Pictures

Beyond research, I enjoy learning languages, gardening, cooking, and playing board games with friends and family.
06 / Contact