The Corrosion, Characterization, Defects and Microscopy research area focuses on understanding the structure, composition, defects, degradation mechanisms, and performance of materials using advanced analytical and imaging techniques. This area plays a critical role in establishing structure-property relationships and improving material reliability across diverse engineering applications.

Research activities include corrosion science, surface engineering, failure analysis, defect characterization, microstructural investigation, and advanced microscopy. Faculty members employ state-of-the-art techniques such as electron microscopy, spectroscopy, diffraction methods, tomography, surface analysis, and in-situ characterization to study materials at multiple length scales.

A significant emphasis is placed on understanding corrosion mechanisms in metals, alloys, coatings, and functional materials operating in aggressive environments. Research also investigates protective coatings, corrosion mitigation strategies, environmentally assisted degradation, and long-term material durability.

Current research themes include microstructural evolution, defect engineering, corrosion-resistant materials, advanced coatings, additive manufacturing defects, interface characterization, nanoscale analysis, and high- resolution imaging of functional materials. Data-driven characterization and automated image analysis are increasingly being integrated into research workflows.

Applications extend to energy systems, infrastructure, transportation, aerospace, marine environments, biomedical implants, and electronic devices. The knowledge generated supports the development of materials with enhanced performance, reliability, and service life.

By combining advanced instrumentation with fundamental materials science, this research area provides critical insights into material behavior and enables the design of next-generation materials and protective technologies.