Robotics & Computer Vision Researcher | Applied Scientist & ML/AI Technical Leader
Faculty Affiliate Researcher at the Vector Institute and MSc graduate in Computer Science from the University of Toronto. My primary focus is robotics and computer vision, with broader work across machine learning and AI, including recent research in LLM compression, pruning, and model optimization.
My journey in AI and autonomous systems
Researching and building efficient AI systems, including large-language-model compression, pruning and sparsification, model routing, and prompt optimization. Developed methods aimed at preserving principal subspaces and model quality under aggressive compression, and built routing systems that direct requests to the most cost-effective capable model. Also use agentic coding tools to accelerate research iteration and engineering velocity.
Led calibration, odometry, and localization work for autonomous driving. Owned and evolved classical and learned visual-odometry architectures, advanced keypoint-based perception models, implemented stereo co-factor-graph visual odometry, defined the technical roadmap, and mentored engineers.
Drove deployment of perception modules on target hardware in real time after the Algolux acquisition. Led research on weather-robust perception, helped define image inference product requirements, and contributed to the design and integration of core features across the self-driving software stack.
Led R&D for multi-object 2D/3D tracking and stereo-based perception, improving tracking accuracy and enabling dense depth estimation. Architected and deployed real-time embedded detection models and TensorRT-accelerated networks as part of the production perception stack and inference engine.
Built multi-face tracking, tailgate detection, and spoof-detection systems for access control. Designed auto-annotation and data pipelines, optimized models for edge devices, and integrated computer vision algorithms into a highly optimized C++/CUDA production codebase.
Developed intelligent systems for robotic mobile-game testing, including detection pipelines, OCR, reinforcement learning prototypes, and automation frameworks. Worked across C++, Python, and Lua to integrate perception, control, and tooling into a unified testing platform.
Supervision and mentorship
Supervised and mentored an intern for the Winter 2023 term, and another for the Fall 2024 and Winter 2025 terms, supporting research skills, engineering practices, and project execution.
Supervised two intern research projects focused on bad-light detection and head-pose estimation from minimal data inputs, guiding algorithm design and implementation.
Academic background and training
Graduate part-time research in the Robotic Interaction, Perception and Learning Lab (RIPL) under Professor Russell Buchanan, with a research focus in robotics.
Graduate part-time research in the embARC research group under Professor Nandita Vijaykumar, focused on computer systems, computer vision, generative AI for simulation, robotics, multimodal training, and reinforcement learning.
MSc Thesis: FOCUS: From Privileged States to RGB-D with Controlled Modality Switching and Representation Alignment
Faculty Affiliate Researcher, Vector Institute
Graduate Student Researcher, University of Toronto Robotics Institute
Training in mechanical design, dynamics, and control, with emphasis on applied mathematics and engineering fundamentals.
Business and finance education with a concentration in accounting, providing a foundation in quantitative analysis and decision-making.
Intensive honours program in physics and mathematics, building a strong analytical and scientific background.
Selected scholarships
Selected research contributions and innovations
A training-free wrapper for pruning and sparsification methods that preserves dominant singular directions of linear layers, improving generation quality and inference speed at high sparsity.
A PPO framework for vision-based robotic manipulation that uses privileged state information during training while controlling the transition to RGB-D observations through modality alignment and action-distribution agreement.
High-density 32-channel posterior coil enabling sub-millimeter fMRI at 3T, demonstrating gains in SNR and spatial resolution for visual cortex imaging.
Research on optimized MRI coil design for high-resolution functional brain imaging, advancing neuroimaging capabilities at 3 Tesla field strength.
Multi-person facial recognition system for access control using visible light and IR detection, with capability to detect and authenticate multiple individuals simultaneously.
Areas where I push the boundaries of AI and robotics
Next frontier embodied intelligence and robotics that physically interact with the real world
Reinforcement learning techniques trained in simulation for real-world robotics
Advanced perception systems for autonomous vehicles and robotics applications
Foundation models for robotic perception, control, and open-world manipulation and navigation.
Physics-based simulations for training and validating autonomous systems
Technologies and tools I work with
Interested in collaboration, research opportunities, or just want to chat about AI and autonomous systems? Feel free to reach out!