معرفی
Michaël Hinderdael is a postdoctoral researcher in Applied Mechanics at Vrije Universiteit Brussel (VUB), specializing in the Acoustics & Vibrations Research Group. His research focuses on structural health monitoring and additive manufacturing technologies, with significant contributions to laser-based manufacturing processes and fatigue analysis of materials.
Dr. Hinderdael's research interests span multiple domains within mechanical engineering and materials science:
- Structural health monitoring using acoustic wave techniques
- Additive manufacturing process optimization, particularly Directed Energy Deposition
- Laser cladding and its applications
- Residual stress analysis and mitigation in manufactured components
- Real-time process monitoring and control systems for manufacturing
His recent publications demonstrate a strong focus on improving additive manufacturing processes through advanced monitoring and control techniques. The research shows progression from fundamental understanding of material behavior to practical implementation of real-time control systems, with particular emphasis on structural integrity assessment, process optimization, and quality assurance in advanced manufacturing environments.
Dr. Hinderdael has received several notable awards for his research:
- Charles HIRSCH Award (2014)
- SMASIS 2015 Best Paper Competition Finalist and Best Student Paper (2015)
- Solvay Award (2019)
- Winner of the First Small Aircraft Design Competition (2014)
Dr. Hinderdael has supervised at least one Master's thesis on structural health monitoring solutions for crack localization and has been involved in multiple research projects as both principal and co-investigator. His current research is supported by several active projects including FWOSBO62, FWOSBO66, and FWOTM941, with funding extending through 2029.
He is actively involved with the Acoustics & Vibrations Research Group at VUB, focusing on developing innovative structural health monitoring strategies for additively manufactured parts. His work bridges fundamental research with practical applications in advanced manufacturing, particularly in functionally graded additive manufacturing and closed-loop process control systems.
