Eindhoven is a unique place worldwide where plasma and flow physics are combined in a tightly integrated research domain, covering an exhaustive range of phenomena. Flow - the fundamental transport of matter - and plasma - the 4th state of matter - are omnipresent in the universe and are key components of high-tech systems. What unifies them are their deep common roots in the mathematical physics language. What sets them apart from the rest of the physics landscape is the broad range of time and spatial scales, from the nano-world to astrophysical dimensions. These scales are intricately coupled resulting in a rich set of non-linear phenomena that as of today remain only partially understood. This domain contributes to the Optical Systems and Integrated Technologies, Imaging Technologies, Semiconductor Technologies and Energy Materials priorities of the NTS.
Understanding the Dynamics of Fluids and Plasmas
We explore how gases, liquids, and plasmas behave, from the tiniest particles to large-scale flows. These systems are at the heart of many technologies and natural processes, and understanding them is key to solving challenges in energy, climate, healthcare, and high-tech manufacturing.
Our research focuses on:
- Exploring Complex Flows and Plasmas
We study how fluids and plasmas move and interact, especially in extreme or fast-changing conditions. This includes everything from turbulence in the atmosphere to the behavior of plasma in fusion reactors. Our goal is to understand these systems deeply so we can predict and control them more effectively.
- Advanced Tools and Techniques
To investigate these phenomena, we use a mix of experiments, simulations, and theory. Our labs feature unique setups, like high-temperature plasma generators and precision fluid systems. We also use powerful computer models and AI to simulate and analyze complex behaviors, helping us design better technologies and processes.
- Real-World Applications
Our insights support innovations in areas like clean energy (including hydrogen and nuclear fusion), semiconductor manufacturing, medical diagnostics, and even agriculture. We also develop new materials and methods to protect surfaces in extreme environments and improve the performance of devices at the nanoscale.
By combining deep scientific understanding with cutting-edge technology, we aim to make fluid and plasma systems smarter, more efficient, and more sustainable, benefiting industries and society at large.