Mechanics and microstructure

Our research in mechanics and microstructures explores the interplay between material properties, mechanical behavior, and microstructural evolution to design materials for a wide range of structural applications. We focus on understanding the mechanical behavior of materials through detailed investigations of deformation mechanisms and failure modes, including fatigue, creep, and fracture. By examining how microstructural features such as grain boundaries, phase distributions, and defect structures influence these behaviors, we aim to establish robust structure-property-performance relationships.

Advanced experimental techniques such as electron microscopy, X-ray diffraction, and in-situ mechanical testing are employed to characterize microstructural changes during deformation. These insights are complemented by analytical and computational models to predict material response under various loading and environmental conditions. Our work provides critical insights into designing materials with tailored microstructures for superior performance, enabling applications in energy systems, aerospace, and other demanding industries. Through this integrated approach, we strive to advance the development of materials with exceptional mechanical resilience and reliability.