PhD Candidate, Electrical and Computer Engineering, Cornell University
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I am a PhD candidate in Electrical and Computer Engineering at Cornell University, where I work on high-dimensional statistics, stochastic control, optimization, game theory, and inverse optimization for intelligent decision-making systems in radar and machine learning.
Before Cornell, I completed a Dual Degree in Electronics and Electrical Communication Engineering at IIT Kharagpur.
My research focuses on mathematically rigorous methods for high-dimensional estimation and sequential decision-making under uncertainty, with applications to radar sensing, adversarial environments, and modern machine learning systems.
High-dimensional radar covariance estimation – Nonlinear spectral shrinkage and convex relaxation methods for banded-spiked clutter covariance matrices, enabling robust space-time adaptive processing (STAP) in challenging radar environments.
Adversarial and multifunction radar decision systems – Fisher information-based masking of sensing plans, game-theoretic radar–jammer interactions, and adaptive ECCM strategies that trade off performance and privacy.
Human–machine and multi-agent decision-making – Quantum decision systems for human–machine interaction and graph transformer neural networks for group intent inference and trajectory analysis.
(Full publication list on Google Scholar.)
MLE of Banded, Spiked, High-Dimensional Clutter Covariance – A Convex Relaxation Approach, 2025 IEEE International Radar Conference (RADAR), 2025.
Approximate MLE of High-Dimensional STAP Covariance Matrices with Banded & Spiked Structure – A Convex Relaxation Approach, IEEE Transactions on Aerospace and Electronic Systems, 2026.
Inferring Group Intent as a Cooperative Game: An NLP-based Framework for Trajectory Analysis using Graph Transformer Neural Network, arXiv:2510.23905, 2025.
Fisher Information Approach for Masking the Sensing Plan: Applications in Multifunction Radars, IEEE Transactions on Aerospace and Electronic Systems, 2025.
Radar Clutter Covariance Estimation: A Nonlinear Spectral Shrinkage Approach, IEEE Transactions on Aerospace and Electronic Systems, 2023.
Masking the Sensing Plan for Multifunction Radar in an Adversarial Setting, 2024 IEEE Radar Conference (RadarConf24), 2024.
Radar Clutter Covariance Estimation: A Nonlinear Spectral Shrinkage Approach, ICASSP 2023.
Adaptive ECCM for Mitigating Smart Jammers, ICASSP 2023.
Lyapunov Based Stochastic Stability of a Quantum Decision System for Human–Machine Interaction, Automatica, 2024.
Lyapunov Based Stochastic Stability of Human–Machine Interaction: A Quantum Decision System Approach, IEEE Conference on Decision and Control (CDC), 2022.
“Radar Clutter Covariance Estimation: A Nonlinear Spectral Shrinkage Approach,” ICASSP 2023, Rhodes, Greece.
“Adaptive ECCM for Mitigating Smart Jammers,” ICASSP 2023, Rhodes, Greece.
“Masking the Sensing Plan for Multifunction Radar in an Adversarial Setting,” 2024 IEEE Radar Conference (RadarConf24), Denver, USA.
“MLE of Banded, Spiked, High-Dimensional Clutter Covariance – A Convex Relaxation Approach,” 2025 IEEE International Radar Conference (RADAR), Atlanta, USA.
Cornell University, Ithaca, New York (2021-Present)
Electrical and Computer Engineering
GPA:3.92/4
Indian Institute of Technology, Kharagpur (2016-2021)
Dual Degree in Electronics and Electrical Engineering
CGPA: 9.41/10
La Martiniere College, Lucknow (2002-2016)
ISC Board Examination: 96.5/100
ICSE Board Examination: 94.2/100