I have recently completed my masters in physics , and also qualified CSIR NET JRF  with AIR 122 dec 2025 . I have worked on thin film devices and have a strong interest in Quantum Computing and Technology. Currently seeking opportunities  to apply  theoretical knowledge and  practical skills in research and  development of Quantum Computer. Proficient in  Python and Qiskit, with a  foundational understanding of  quantum  algorithms . I have also attended various seminars on Quantum Computing and qubit systems and have a certified course on it . 

Throughout my BSc Honours studies, while developing a strong foundation in physics, I cultivated computational and electronic skills relevant to modern scientific research. Alongside my formal coursework, I have pursued self-directed learning in Python, C, C++, Arduino, and data analysis. I built several mini-projects including small videogames, a parking alarm system, and a defence radar prototype etc, all driven by a desire to understand and manipulate complex systems. I also built a demo model for a secure AI human communication system to prevent misuse of AI, along with the data safety issue that arises due to AI innovation. A significant milestone during my undergraduate years was my participation in the National Anveshika Experimental Skill Test (NEAST), organised by Sopan Ashram and IAPT, where I was among the top 10 finalists nationwide. In the final round, I had the chance to be with Padmashree Award-winning Prof. H.C. Verma and spent three days with other peer finalists from across India, which strengthened my appreciation for scientific rigor and experimental creativity. This experience reinforced the importance of careful experimentation and critical thinking in scientific research. Another pivotal experience occurred during the final year of my bachelor's at a workshop on experimental physics on our university campus. I discovered a way to improve some classical experiments. One of these improvements later resulted in a first-author publication. This inspired me to continue the way of thinking I had always used. I also solved many problems in our experimental labs during my college days and found ways to run experiments using modern technical gadgets/software for better precision. While doing my M.Sc, I secured first place in an interdepartmental science day competition for an Arduino-based system for advanced home security and targeted fire extinguisher protection. The project required the integration of sensing systems, control electronics, and automated response mechanisms, strengthening my interest in designing complex physical systems that process information dynamically. Additionally, in the same year, I developed a device to measure the velocity of light using IC7474 and IC555. Although equipment limitations prevented the completion of the final experiment, the design process itself provided valuable experience in constructing precise timing circuits and translating theoretical measurement principles into practical electronic architectures. As part of my master's research project, I worked on the fabrication and characterization of Cu-doped PbS–CdS thin-film photodiodes via Chemical Bath Deposition. Throughout the project, I gained hands-on experience with fabrication and characterization techniques, including the CBD method, UV-Vis spectroscopy, and X-ray diffraction (XRD). This project enhanced my skills in experimental design, materials analysis, and quantitative data interpretation. 

Alongside these pursuits, I received the Rampada Misra Award for my innovation skills and the Bose-Einstein Award for my achievements in experimental physics from my College. These awards recognized my work, creativity, and problem-solving skills.