Greater Delhi Area
An undergraduate researcher in Electronics and Communication Engineering at Guru Gobind Singh Indraprastha University, delivering applied research and engineering solutions at the intersection of AI, optical communication, and quantum technologies. I work on problems where most models fail— real-world conditions. My current work focuses on a Climatology-Aware Quantum Channel (CAQC) model, integrating ERA5 atmospheric data with optical propagation physics to enable reliable satellite quantum communication under realistic environmental constraints. I have authored multiple research publications (journals, conferences, and few book chapters), with contributions in: • Quantum Key Distribution (QKD) and satellite communication • Physics-informed and data-driven modeling • Applied machine learning for engineering systems My strength lies in end-to-end execution, from problem framing and modeling to simulation, validation, and iteration. I do not rely on ideal assumptions; I build systems that are tested against variability, noise, and constraints. Technically, I work with: • Python, PyTorch • Optical system simulation using OptiSystem • Data-driven modeling integrated with physical systems At 16, I led a team recognized among the top projects in the Delhi Government’s Business Blaster Expo 2021 — an early signal of ownership and execution under pressure. I bring a research mindset with engineering discipline —focused on building systems that are not only theoretically sound but also deployable. Open to roles and collaborations involving: • Communication systems and signal processing • Applied AI/ML in engineering domains • Quantum and optical communication research I am ready to contribute from day one — building, testing, and shipping work that holds up outside the lab.
Contributing to quantum communication research at SAG, a key contributor to DRDO's Quantum Technology Research Centre (QTRC). - Modeling long-range FSO quantum communication channels in OptiSystem. - Simulating atmospheric attenuation, turbulence effects, beam propagation, and receiver performance for quantum optical links. - Evaluating QKD system performance through QBER, secure key rate, and link reliability analysis. - Developing and validating simulation frameworks for secure long-distance optical communication. - Exploring channel-design trade-offs for future terrestrial and satellite-enabled quantum communication networks.
[National Quantum Mission] Researching Twin-Field Quantum Key Distribution (TF-QKD) under the CARE, IIT Delhi, under the guidance of Dr. Neelkanth Kundu. • Developing Python-based simulation frameworks for free-space quantum communication. • Implementing finite-decoy security analysis, phase-error estimation, and secure key rate evaluation. • Investigating the impact of atmospheric turbulence and channel impairments on TF-QKD performance. • Exploring applications in long-distance and satellite-enabled quantum communication networks.
- Leading the student body of BVP-Optica to drive innovation in latest technical trends. - Conceptualizing and executing workshops, seminars, and competitions to enhance technical skills and knowledge. - Mentoring and guiding members in research projects, simulations, and practical applications. - Fostering teamwork and collaboration across the society to encourage creativity and problem-solving. - Building academic and industry partnerships to provide learning opportunities and exposure for students. - Authored - Photonics Weekly Series
BVP-OPTICA
- Conducted research under Dr. Yugnanda Puri, Dean R&D, specializing in Quantum Key Distribution (QKD). - Designed and modeled Alice-Bob-Eve QKD systems over Free-Space Optical (FSO) channels using the BB84 protocol in OptiSystem. - First author of 2 book chapters and 1 journal paper (with an additional paper accepted for publication).