I am a molecular astrophysicist at the University of Leeds investigating a fundamental question at the intersection of quantum chemistry and astronomy: How do simple interstellar ices transform into the complex molecular building blocks that seed new worlds—and ultimately, life itself?

Working alongside Dr. Catherine Walsh, I employ a comprehensive computational approach, combining first-principles electronic structure theory, molecular dynamics simulations, and astrochemical kinetic modelling to map the reaction networks occurring on icy dust grains within planet-forming discs.

My scientific journey began with a foundation in terrestrial chemistry. During my PhD in Quantum Chemistry, I elucidated the binding mechanisms between metal ions, organic compounds, and biopolymers on crystalline α-Al₂O₃ (0001) surfaces through an integrated computational approach using density-functional theory, ab-initio molecular dynamics, and nudged-elastic-band calculations.

Earlier, my MChem research clarified the hydroperoxide-catalyzed auto-oxidation mechanism of jet fuels, providing insights into fuel stability and performance. This strong foundation in surface science, reaction kinetics, and high-performance computing now enables me to translate terrestrial chemical principles to the extreme conditions of interstellar environments.