• Constructed multi-physics models to simulate cryogenic carbon capture systems• Developed 1D system modeling tools in Julia to build and connect equipment components• Modeled fluid and heat transport, three-phase transitions and PI-controlled devices• Included advanced features such as auto-differentiation and numerical optimization• Fitted and validated physics models against experimental data with nonlinear least squares tools• Collaborated with a team of software, system and mechanical engineers to solve difficult problems• Managed multiple GitHub repositories and reviewed pull requests from other contributors• Provided technical support for demo-scale testing at the National Carbon Capture Center

• Provided the heavy-ion physics community with new software tools for model-to-data analyzes• Co-authored eight scientific publications, including two computational physics articles• Improved the simulation of high-energy nuclear collisions to better predict experimental data• Developed a 3-D hydrodynamic code to accurately evolve fluids that are far from equilibrium• Built a Monte Carlo package to model particle emission with ten times greater precision• Delivered presentations at nuclear physics conferences to communicate scientific results• Taught introductory physics recitations to assist engineering and medical students

• Numerically evaluated proton structure models and compared them to deep inelastic scattering experiments• Simulated the flavor oscillations of atmospheric muon neutrinos traveling through Earth to search for signatures of nonstandard model interactions• Developed a semi-classical loop quantum cosmology model to analyze the Big Bounce of the early universe