While studying Mechanical Engineering in the Power&Flow research group, I became interested in fluid dynamics, heat transfer and combustion physics. The combination of tackling complex thermal-fluid physics, using computational modelling and bridging these theoretical and computational concepts with real-world scenarios drew me to this field and continued to fuel my passion. For my thesis I am working on the combustion of iron particles, a carbon-free alternative to coal. One aspect of this project that I particularly enjoyed was the opportunity to delve into new computational techniques. I now use that to model the combustion behaviour of a single iron particle under different conditions. This method allows me to explore the accuracy of our current understanding of the combustion physics of a single iron particle.
The potential impact of this project successfully modelling the combustion physics of an iron particle may lead to the development of models for environmentally friendly iron particle burners. This innovation may help reduce carbon dioxide emissions in the global climate change crisis. So my project is not just an intellectual challenge, it has the potential to positively affect our world.
The best thing about studying at TU/e is the university's strong ties with local industries. It is a dynamic environment where academia and industry intersect, making it more than just theoretical learning.
In the future, I hope to tackle problems in thermal fluid engineering and related fields. My research capabilities, theoretical knowledge and computational skills help me face the technical challenges ahead with confidence and innovation.