The Mechanical Behaviour of Materials research area focuses on understanding how materials respond to external forces, environmental conditions, and service-related stresses. The objective is to establish relationships between microstructure, processing history, and mechanical performance to enable the design of reliable and durable materials for engineering applications.

Research activities encompass elasticity, plasticity, fracture mechanics, fatigue, creep, wear, impact behavior, and failure analysis. Faculty members investigate deformation mechanisms across multiple length scales, from atomic- level interactions to component-level performance under complex loading conditions.

Advanced experimental techniques, including mechanical testing, in-situ characterization, digital image correlation, microscopy, and computational modeling, are employed to study material response under static, cyclic, dynamic, and high-temperature environments. Research also explores the influence of defects, interfaces, residual stresses, and environmental degradation on material performance.

Current research themes include high-strength structural alloys, lightweight materials, advanced steels, high- temperature materials, nanostructured materials, fatigue-resistant systems, fracture-resistant materials, and materials for extreme environments. Computational approaches are increasingly integrated to predict failure mechanisms and optimize material design.

Applications extend to aerospace, automotive, energy, infrastructure, biomedical implants, marine systems, and defense technologies. Understanding mechanical behavior is essential for improving safety, reliability, and service life in engineering components and structures.

The research area combines fundamental scientific inquiry with practical engineering solutions, contributing to the development of materials capable of meeting the demanding requirements of modern technological applications.