Lokesh Boominathan

I am a Ph.D. student in the Electrical and Computer Engineering Department at Rice University, advised by Dr. Xaq Pitkow at the Laboratory for the Algorithmic Brain.

Before joining Rice, I worked as a Research Assistant with Dr. Kaushik Mitra at IIT Madras and Dr. R. Venkatesh Babu at IISc. My work there was on deep learning algorithms for computer vision and computational imaging.

Email  /  Résumé  /  Google Scholar  /  Linkedin  /  Twitter

profile photo

News:

  • Paper on Phase transitions in when feedback is useful accepted at NeurIPS, 2022.
  • Presented talk at TEX2022 conference held at SISSA - International School for Advanced Studies, Italy (video).
Research

I'm interested in reinforcement learning, computational neuroscience, deep learning, and machine learning. My current research focuses on applying reinforcement learning to model animal foraging.

clean-usnob Phase transitions in when feedback is useful
Lokesh Boominathan, Xaq Pitkow
NeurIPS, 2022
arXiv / video

We developed a normative theory of resource-constrained brain inference that generalizes the theory of Predictive Coding by showing that there exist phase transitions in when feedback messages are helpful/harmful.

Phase retrieval for Fourier Ptychography under varying amount of measurements
Lokesh Boominathan, Mayug Maniparambil, Honey Gupta, Rahul Baburajan, Dr. Kaushik Mitra
BMVC, 2018   (Spotlight Presentation)
arXiv

We developed a deep learning based phase retrieval algorithm for Fourier Ptychographic Microscopy that is fast and requires fewer acquisitions than traditional phase retrieval algorithms.

CrowdNet: A Deep Convolutional Network for Dense Crowd Counting
Lokesh Boominathan, Srinivas S S Kruthiventi, Dr. R. Venkatesh Babu
ACM Multimedia, 2016   (500+ citations in Google Scholar)
arXiv

We developed a deep learning algorithm for estimating crowd density from static images of highly dense crowds.

Compensating for Large In-Plane Rotations in Natural Images
Lokesh Boominathan, Suraj Srinivas, Dr. R. Venkatesh Babu
ICVGIP, 2016
arXiv

We developed an algorithm using deep neural networks and Bayesian optimization to compensate for large in-plane rotations present in photographs.

Website Credits Jon Barron