I am an ECE PhD candidate at New York University (Center for Cybersecurity), advised by Prof. Brandon Reagen. I’m broadly interested in the science of deep learning, particularly high-dimensional learning dynamics and information theory, to understand and optimize large language models (LLMs) from first principles.
My work brings together information-theoretic analysis, spectral geometry, and random matrix theory to develop tools that probe the the learning dynamics, and capacity scaling in LLMs. Specifically, I developed an information-theoretic framework, AERO, to study the impact of nonlinearities on attention mechanism, and introduced an entropy-guided attention for Private LLM architectures with fewer nonlinear operations. Our preliminary findings have been accepted to PPAI@AAAI'25 and ATTRIB@NeurIPS'24.
Earlier in my PhD, and as part of the DPRIVE project, I proposed new architectures and algorithms for efficient neural network computation on encrypted data, including DeepReDuce, ICML'21, a ReLU-optimization technique, and DeepReShape, TMLR'24, a redesign of CNNs for private inference efficiency.
Recent talks: We presented our work Entopy and Private Language Models at the NYU CILVR Seminar, and Entropy-Guided Attention for Private LLMs on the AI Fireside Chat
Besides research, I have contributed as an (invited) reviewer for NeurIPS (2023, 2024), ICML (2024, 2025), ICLR (2024, 2025), TMLR (2025), AISTATS (2025), CVPR (2024, 2025), ICCV (2025), and AAAI (2025).
I am currently on the job market, graduating in Fall 2025, and seeking research scientist roles at the intersection of LLM science, architectural optimization, and privacy-preserving AI. Feel free to reach out!
Ph.D. in Neural Architectures for Efficient Private Inference, 2020 - present
New York University
M.Tech. (Research) in Computer Science and Engineering, 2017 - 2020
Indian Institute of Technology Hyderabad
B.Tech. in Electronics and Communication Engineering, 2009 - 2013
National Institute of Technology Surat
We introduce an information-theoretic framework to characterize the role of nonlinearities in decoder-only language models, laying a principled foundation for optimizing transformer-architectures tailored to the demands of Private Inference (PI). By leveraging Shannon’s entropy as a quantitative measure, we uncover the previously unexplored dual significance of nonlinearities, beyond ensuring training stability, they are crucial for maintaining attention head diversity. Specifically, we find that their removal triggers two critical failure modes, entropy collapse in deeper layers that destabilizes training, and entropic overload in earlier layers that leads to under-utilization of Multi-Head Attention’s (MHA) representational capacity. We propose an entropy-guided attention mechanism paired with a novel entropy regularization technique to mitigate entropic overload. Additionally, we explore inference-efficient alternatives to layer normalization for preventing entropy collapse and stabilizing the training of LLMs with reduced-nonlinearities. Our study bridges the gap between information theory and architectural design, establishing entropy dynamics as a principled guide for developing efficient PI architecture.
DeepReDuce is a set of optimizations for the judicious removal of ReLUs to reduce private inference latency by leveraging the ReLUs heterogeneity in classical networks. DeepReDuce strategically drops ReLUs upto 4.9x (on CIFAR-100) and 5.7x (on TinyImageNet) for ResNet18 with no loss in accuracy. Compared to the state-of-the-art for private inference DeepReDuce improves accuracy and reduces ReLU count by up to 3.5% (iso-ReLU) and 3.5×(iso-accuracy), respectively.
Responsibilities include: