One-shot Clustering for Policy Evaluation in Federated TD Learning with LFA
Analysed a clustering algorithm for TD(0) learning in federated reinforcement learning.
MS Electrical Engineering
2026-09
2028-06
Stanford University
B.Tech Electrical Engineering
2022-10
2026-05
IIT Bombay
My research interest lies at the intersection of machine learning, optimization and robotics. I am broadly interested in developing efficient and adaptive learning algorithms that are both theoretically grounded and practically scalable, particularly for decision-making and autonomous systems operating in real-world environments.
I have worked on deriving theoretical guarantees for clustering in federated reinforcement learning, studied policy optimization methods such as TRPO and PPO, and analyzed backdoor attacks in federated learning to better understand robust distributed training. In signal processing, I have designed algorithms for sub-Nyquist sampling and perfect signal reconstruction using adaptive time encoding frameworks.
Looking forward, I hope to work on problems that combine rigorous mathematical foundations with real-world implementation. I am especially excited by the challenge of building intelligent systems that can learn efficiently, adapt reliably, and operate robustly in dynamic environments.
Analysed a clustering algorithm for TD(0) learning in federated reinforcement learning.
Literature review on advancements in robust federated machine learning.
Adaptive time-encoding framework for efficient signal sampling and reconstruction.
Insights into working of software, electrical and mechanical subsystems to create Matsya 6D.