Leon Thijs
Department / Institute
Group
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RESEARCH PROFILE
Leon Thijs is a Doctoral Candidate at the Power and Flow group in the Department of Mechanical Engineering under the supervision of full professor Philip de Goey and associate professor Jeroen van Oijen. He researches numerical techniques for the simulation of single metal particle combustion. Metal powders are very promising high-energy-density fuels that are entirely carbon-free and recyclable. The metal powders can be oxidized to metal oxides while producing heat. These metal oxides can be reduced back to metal powders with green electricity. This cyclic process of oxidation and reduction can be repeated over and over again.
ACADEMIC BACKGROUND
Leon Thijs obtained his BSc degree in Mechanical Engineering at Eindhoven University of Technology (TU/e) in 2017. He obtained his MSc double degree in Mechanical Engineering (Power & Flow group) and Applied Physics (Fluids & Flow group) in 2020. As part of the master's program, he did his internship at Canon Production Printing (former Océ), where he worked on the numerical modeling of ink drying in the nozzle. Afterward, he started his graduation project under the supervision of Hans Kuerten and Jos Zeegers. His master thesis is called “Honeycomb wake turbulence and particle dynamics in a magnetic density separation system”. Directly after graduation, Leon joined the Power and Flow group as a Doctoral Candidate. In this position, he is now working on model development of single metal particle combustion
Recent Publications
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Temperature evolution of laser-ignited micrometric iron particles
Applications in Energy and Combustion Science (2024) -
Particle-resolved hyperspectral pyrometry of metal particles
Combustion and Flame (2024) -
Improvement of heat- and mass transfer modeling for single iron particles combustion using resolved simulations
Combustion Science and Technology (2024) -
A numerical study of emission control strategies in an iron powder burner
Proceedings of the Combustion Institute (2024) -
Nitrogen oxide formation mechanism in iron dust flames
Proceedings of the Combustion Institute (2024)
Ancillary Activities
No ancillary activities