Understanding deformation mechanisms, martensitic transformation kinetics, and microstructure evolution in metallic materials under extreme loading and temperature conditions.
Understanding the role of crystal orientation andnphase stability (𝜞SFE, and Gibbs free energy, ΔGγ→ε)  on reversible martensitic transformations that significantly enhance low-cycle fatigue resistance.
Design and development of Fe-Mn-Si-based alloys with superior strength-ductility balance, and improved resistance against fatigue and hydrogen embrittlement at cryogenic temperatures.Â
Advancing real-time thermo-mechanical testing platforms to capture dynamic deformation and transformation behavior using high-energy X-ray and neutron sources.
In-situ TOF neutron based tensile/fatigue studies in cryogenic environments
Exploring gradient nanostructuring and surface coatings for enhanced wear, corrosion, and oxidation resistance in structural alloys.