My research in Materials Engineering thrives on collaboration with industry leaders, focusing on the entire material design chain to optimize performance through advanced characterization techniques. We leverage cutting-edge tools such as 3D topology optical microscopy, Scanning and Transmission Electron Microscopy (SEM and TEM), and Synchrotron and Neutron techniques to explore material interactions in dynamic settings. Our work spans corrosion studies, joining and bonding innovations, and the investigation of wear mechanisms and protective layers, contributing to significant advancements in material science.

I teach two specialized courses in materials engineering. "Material and Process Selection" focuses on the critical linkage between material properties and manufacturing methods, using Ansys GRANTA EduPack for practical insights into material selection. "High Temperature Materials" delves into the behavior of materials under extreme temperatures, covering key phenomena like plasticity, creep, and oxidation, and exploring advanced materials such as superalloys and ceramics. Both courses are designed to equip students with the knowledge to tackle real-world engineering challenges related to material selection and application in high temperature environments.