Two fully funded PhD positions — apply by July 15
DNS & LES of fuel blends under gas turbine conditions, and modelling of metal fuel combustion. Start January 2027. Details →
McGill University · Department of Mechanical Engineering
Aerothermochemistry for Sustainable Energy Conversion
We develop predictive simulation methods for turbulent reactive flows — advancing hydrogen and alternative fuels, thermochemical conversion of solid fuels, and high-performance computing for the energy transition.
65+
Publications
3
Research themes
2
Open PhD positions
GPU
Exascale-ready solvers
Research
Predictive models for hydrogen, ammonia blends, and reactive metal fuels — from flame instabilities to storage safety.
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Multiphase reactive flows of biomass and metal fuels — kinetics, radiation, and emissions in practical systems.
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DNS and LES with flamelet-based manifolds, on GPU-based exascale architectures with NekRS, Pele, and OpenFOAM.
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About the name
Numerical modeling of turbulent combustion is grounded in first-principle equations that arise from the rational combination of aerodynamics, thermodynamics, and chemistry. The establishment of this framework is usually attributed to Theodore von Kármán, who first lectured on aerothermochemistry at the Sorbonne, Paris, during the academic term 1951–1952. Our lab's name honors this tradition — and applies it to the energy systems of the future.
News
DNS & LES of fuel blends under gas turbine conditions, and modelling of metal fuel combustion. Start January 2027. Details →
Aerothermochemistry for Sustainable Energy Conversion — a new research group in the Department of Mechanical Engineering.
Two fully funded PhD positions are open now, and we always welcome inquiries from motivated students and postdocs.
See open positions