A major objective of my work is the prediction and design of functional materials exhibiting exotic quantum phenomena, including quantum spin Hall effects, anomalous Hall conductivity, nontrivial topological states, and tunable electronic phase transitions. I am particularly interested in 4d and 5d transition-metal systems, where strong spin-orbit coupling and electron correlation lead to emergent quantum behaviour relevant for next-generation electronic and spintronic technologies. My research also explores the optical and transport properties of topological insulators, metal-organic frameworks, and heterostructures for applications in sensing and energy-efficient devices. By integrating first-principles calculations, many-body approaches, and model Hamiltonian studies, my work aims to develop predictive frameworks for engineering quantum materials with tailored electronic, magnetic, and optical functionalities.