Embarked on a dynamic PhD journey in photonics and semiconductor research, gaining expertise in experimental design, numerical modeling, and computational analysis. Led groundbreaking projects in optical topological insulators and nonlinear plasmonics, demonstrating proficiency in semiconductor device fabrication, nanoimaging, and advanced characterization techniques. Passionate about innovation and problem-solving, poised to leverage skills and insights to excel in semiconductor industry roles. Projects: Optical Topological Insulators Designed a novel metal device aimed at generating optical topological quasiparticles with tailored properties, potentially applicable in memory and storage devices. Plasmonic Logic Gates and Logic Circuits Contributed to the design and experimental realization of nano-scale logic gate and logic circuits devices utilizing plasmonic systems in collaboration with a team. Nonlinear Plasmonics Collaborated on enhancing Second Harmonic Generation Efficiency of a nanodevice through design optimization and experimental validation. Non-reciprocal and Chiral Plasmonics Developed a polarization-sensitive chiral plasmonic circulator/delay line nanodevice, overseeing its experimental realization and data analysis.

Gravitational Wave Memory as a New Cosmological Probe • Developed a theoretical model to explain and understand gravitational Thomas Precession(GTP) memory effect. • Proposed a potential application in cosmological observations of Light Mass Primordial Black Holes.