- Improving perception DNN performance for autonomous vehicles using computer vision, machine learning, and synthetic data generation.
- Leveraging multi-camera perception systems, photorealistic datasets from Omniverse Replicator, and domain adaptation to enhance robustness across diverse environments.
- Led the development of ARSim, a synthetic augmentation framework that improved 3D localization accuracy by 10% and reduced prediction error by 20% across key perception tasks.
- Recently focusing on Generative AI–based synthetic data generation using diffusion models to expand long-tail scenario diversity.
Conducted research on enabling edge intelligence in resource-constrained autonomous systems, with a focus on reinforcement learning applications. Developed energy-efficient ML algorithms (e.g., domain randomization), proposed novel hardware-aware architectures, and addressed scalability challenges in multitask federated reinforcement learning systems. Work focused on drone navigation and on-device learning.
Worked in the Advanced Logic Lab on a novel STT-MRAM-based analog Processing-In-Memory (PIM) DNN accelerator. Developed an end-to-end simulation framework to optimize power-performance trade-offs for various DNN topologies. Achieved notable improvements in energy efficiency and latency over digital DNN accelerators.
Developed deep learning models for object detection and classification in self-driving car applications using TensorFlow. Focused on pedestrian, vehicle, and traffic sign recognition. Adapted state-of-the-art algorithms, trained models, and provided recommendations for optimal deployment strategies.
Publications#
