Group De Goey
"Combustion is responsible for 80% of our current energy supply and will remain to be extremely important in future due to its extremely high power-density. However, the fuels will shift more and more from fossils to sustainable fuels like biofuels, solar fuels and metal fuels. To understand the underlying physical and chemical processes and to control them in such a way that the processes are ultra-clean and highly efficient is highly motivating".
Research Profile
The expertise in this group includes combustion science, technology and innovation, energy, thermo-fluids and heat transport technology. Group de Goey is active and well-known for numerical and experimental research in the field of laminar flames, turbulent flames, engines, gas turbines, flame thermo-acoustics, etc. The two most important achievements are the invention of
1. The Heat Flux Method, one of the most accurate methods known for measuring adiabatic burning velocities and used by at least 12 other groups in the world, which will be extended to metal fuels within the current project.
2. The FGM method, a very efficient and accurate combustion modeling technique, also well recognized in the combustion community worldwide and also used by more than 30 groups/industries over the world.
Meet some of our Researchers
Related themes
Within the research group Power&Flow, de Goey is specialized in the following themes:
Student opportunities
Are you a student interested in graduating or doing a project in the Power & Flow group? Our research covers a very broad range of subjects. We design, make and test systems for various power and flow applications. In most of our graduation projects we perform experimental, theoretical or numerical studies of the interplay between heat (production) and flow. Students use these studies to either understand the fundamentals of these heat and flow problems or to apply them and find practical solutions on how to operate or optimize the application.
Research projects
De Goey is currently working on the following research projects:
Project Related Publications
Our most recent peer reviewed publications
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D. Ning,T. Hazenberg,Y. Shoshin,J.A. van Oijen,G. Finotello,L.P.H. de Goey
Experimental and theoretical study of single iron particle combustion under low-oxygen dilution conditions
Fuel (2024) -
Aravind Ravi,Philip de Goey,Jeroen van Oijen
Effect of particle size distribution on the laminar flame speed of iron aerosols
Combustion and Flame (2023) -
L.C. Thijs,J.G.M. Kuerten,J.C.H. Zeegers,S. Tajfirooz
Magnetic Density Separation of Particles in Honeycomb-generated Wake Turbulence
Chemical Engineering Science (2023) -
L.P.H. de Goey,J.A. van Oijen
Prediction of flashback limits for laminar premixed hydrogen-air flames using flamelet generated manifolds
International Journal of Hydrogen Energy (2023) -
L.C. Thijs,Efstratios M. Kritikos,Andrea Giusti,W.J.S. Ramaekers,Jeroen A. van Oijen,Philip de Goey,Xiaocheng Mi
On the surface chemisorption of oxidizing fine iron particles
Combustion and Flame (2023)
Contact
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Visiting address
Gemini South 2.131(Building 15)De Zaale5612 AJ EindhovenNetherlands -
Visiting address
Gemini South 2.131(Building 15)De Zaale5612 AJ EindhovenNetherlands -
Postal address
Department of Mechanical EngineeringP.O. Box 5135600 MB EindhovenNetherlands -
Postal address
Department of Mechanical EngineeringP.O. Box 5135600 MB EindhovenNetherlands -
Teamlead
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Secretary