About Mike van Meerkerk
Mike van Meerkerk is an expert in experimental fluid mechanics, working at the intersection of advanced optical measurement techniques, numerical modelling, and data-driven analysis. His work focuses on understanding complex flow phenomena, transient behaviour, and system optimisation—translating experimental insights into practical engineering solutions.
Growing up near the Dutch coast, Mike developed an early fascination with water and waves. As an avid kitesurfer, he combines a personal connection to the sea with a professional drive to understand the physics behind it. This connection drives him to tackle fluid mechanics challenges that impact society.
He earned his PhD in Mechanical Engineering from Delft University of Technology in 2021, where he investigated the variability in wave impact loads on vertical walls. During this research, he developed a stereo Planar Laser Induced Fluorescence (PLIF) technique to reconstruct free-surface profiles of a breaking wave just before impact on a vertical wall. By integrating this technique with Particle Image Velocimetry (PIV), he uncovered the role of wave crest instabilities in pressure variability.
At Deltares, he designs and improves experimental methods, often combining physical modelling with numerical simulations. He collaborates closely with universities and industry partners to create practical tools and supports knowledge transfer through mentorship and specialist advice.
Mike is curious and open minded with a drive to turn complex challenges into practical solutions. He finds energy at the intersection of science and practice, translating scientific insights into practical results. For him, the best ideas come from working together and sharing knowledge openly.
Looking ahead, he aims to push the boundaries of experimental fluid mechanics by integrating data-driven modelling and AI. He wants to get more value from experimental data to understand the physics behind complex flows. By connecting experiments and models in smarter ways, he hopes to speed up engineering decisions that support the energy transition and help build resilient, future-proof infrastructure.