Presented Generative Action Tell-Tales: Assessing human motion in synthesized videos at the ML Collective DLCT reading group.
👋 Hi! I’m currently a Grad Student at Boston University. I completed my undergrad at Manipal Institute of Technology, India, and had developed a keen interest in all things ML during my first year and was fortunate to gain research experience along the way. Prior to joining BU, I worked with the Content and User Understanding team at ShareChat, and was fortunate to work on projects with the Serre Lab (Brown University), Human Dynamics Group (MIT Media Lab, Massachusetts Institute of Technology), ETS, Montreal and FOR.ai (now Cohere for AI).
At BU, I am advised by Prof. Deepti Ghadiyaram, and I’m currently exploring topics in computer vision, with a broad interest in representation learning and generative models.
Education
News
Generative Action Tell-Tales: Assessing human motion in synthesized videos accepted as an oral at VGBE and PhysHuman workshops, CVPR 2026.
Some Modalities are More Equal Than Others: Decoding and Architecting Multimodal Integration in MLLMs accepted to CVPR 2026 Findings.
Presented Generative Action Tell-Tales: Assessing human motion in synthesized videos at NECV 2025 (oral).
Started my PhD at Boston University, advised by Prof. Deepti Ghadiyaram.
Mentoring a high school student in the BU RISE Research Internship Program.
What's in a Latent? Leveraging Diffusion Latent Space for Domain Generalization and Revelio: Interpreting and leveraging semantic information in diffusion models accepted at ICCV 2025.
What's in a Latent? Leveraging Diffusion Latent Space for Domain Generalization accepted at the VisCon Workshop, CVPR 2025.
Progressive Prompt Detailing for Improved Alignment in Text-to-Image Generative Models accepted as an oral at the AI4CC Workshop, CVPR 2025.
Revelio: Interpreting and leveraging semantic information in diffusion models accepted as an oral at the MIV Workshop, CVPR 2025.
Research
TLDR Humans can tell whether two shapes are the same under rotation or scale, even without recognizing what the object is. Leading vision language models cannot. They need a familiar visual context to reason spatially.
TLDR Humans can immediately spot a generated video where the action is wrong or the movement looks off. AI metrics give it a perfect score anyway. We build a metric grounded in how real people move so that bad motion actually gets flagged.
TLDR If you ask what you hear in a video, people listen. Ask what you see, and they look. Multimodal models often don't make that distinction. We put audio, video, and text in direct conflict and train models to answer from the sense the question actually asks about.
TLDR We recognize a dog whether it is a photo, cartoon, sketch, or painting. Classifiers often fail when the visual style shifts. Diffusion model features naturally group images by style without any labels, and plugging them into a classifier improves generalization to new visual styles.
TLDR Generative models produce rich, detailed images, but what do they actually understand internally? We open them up, find that they encode meaningful visual concepts in specific layers, and show those internal representations are useful for other vision tasks.
TLDR A painter sketches the scene first, then fills in objects, then texture. Text to image models try to do all of that from a single prompt at once. We split the prompt into those same steps and feed them in progressively during generation, so the output actually matches the description.
TLDR Given one handwritten character, people draw new versions that are still recognizable but not identical. Existing metrics for generative models miss this balance entirely. We measure recognizability and diversity as separate axes and test how closely models match what humans actually produce.
TLDR Training a video captioning model requires a human written caption for every clip, which is expensive. We rank which unlabeled videos are most worth annotating, so the model learns faster with fewer labels.
TLDR Training images often come from many different sources with no labels telling the model which is which. We automatically group them by visual style and train classifiers that adapt to each group, matching methods that had those source labels to begin with.
Full list on Google Scholar
Experience
- Vision in Multimodal Large Language Models (MLLMs): Investigating limitations of visual understanding in MLLMs and developing methods to improve cross-modal alignment for robust multimodal reasoning.
- Evaluation of Video Generation Models: Designing and implementing novel evaluation metrics to assess human action fidelity, temporal consistency, and motion coherence in generative video models.
- Internal Representations of Diffusion Models: Analyzing diffusion models as representation learners by probing their intermediate states; demonstrating their effectiveness for downstream tasks such as classification, multi-modal reasoning, and domain generalization.