Maaz Qureshi portrait

Hi, I'm

Maaz Qureshi

Research Engineer Β· Embodied AI & Robot Learning

Embodied AI Robot Learning Policy Learning (RL / VLA) Perception & Manipulation
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I'm a Research Engineer focused on Embodied AI and robot learning, teaching robots to perceive, reason, and act in the physical world. My work spans learned control policies (reinforcement learning, VLA, and imitation learning), multimodal and foundation models (CNNs, VLMs, VLAs, and world-action models), and the real-time systems that deploy them on multi-robot platforms.

During my research at the University of Waterloo, I worked with Dr. William Melek and Dr. George Shaker, collaborating with Apple, UW RoboHub, Keysight, and Rogers on smart-factory robotics.

My fascination with autonomy started early: I built a swarm-robotics system that won 3rd place for Best Engineering Project at the national level.

Academic Background

Jan 2024 – Aug 2025

University of Waterloo, Canada

Masters of Applied Sciences (M.A.Sc), Mechatronics Engineering

Thesis: Intelligent Multi-Robot Autonomy with Connected AMRs and Manipulators for SMART Factory(s)

CGPA: 93.5% (A+)


Sept 2017 – Aug 2021

Bahria University

Bachelor of Engineering (B.E.), Electrical (Electronics) Engineering

Thesis: Swarm Robotics: Centralized Multi-Robot Autonomy for Path Planning and Patterns

CGPA: A+

About Maaz

Research

GitHub GitHub Scholar Scholar

Robot Policy Rollout Deployment with Cobots

Rollout Vision-Language-Action (VLA) model after PEFT fine-tuning and Diffusion Policies on a Franka 7-DoF manipulator, learning closed-loop visuomotor control for real-world robotic manipulation tasks.


Multimodal AI/ML Learning Deployment with 7-DoF Manipulator

Real-time RGB-D sensor-fused multimodal pipeline (VLM, pose estimation, object detection, and semantic segmentation) built in C++ with NVIDIA CUDA, and quantized with TensorRT (FP16, INT8) for asynchronous pipelines that maximize throughput.


CRADMap: Applied Distributed Volumetric Mapping with 5G-Connected Multi-Robots and 4D Radar Perception

Distributed volumetric mapping integrating ORB-SLAM3 (front-end), TSDF–Octree fusion, 4D mmWave radar + RGB-D perception, and 5G offloading for real-time mapping under occlusions and degraded visibility.


RAPTAR: Radar Radiation Pattern Acquisition through Automated Collaborative Robotics

Automated collaborative-robot framework using OMPL RRT-Connect and quaternion kinematics for high-precision mmWave antenna radiation pattern measurement in 3D space.


Humanoid Robotics: Non-Verbal Gesture Learning

Integrated LLaMA 3 with gesture and vision sensing for real-time multimodal control of NAO robot, enabling non-verbal HRI via IMU-based motion interpretation.


SWARM Autobots

Developed synchronized control and formation algorithms for multi-robot UGV teams enabling coordinated navigation, wireless peer-to-peer communication, and real-time trajectory execution.


Underwater Digital-Twin DAM Inspection Using ROV/AUV

Structure inspection of the NJHEP dam using multi-beam sonar, profiling sonar, and monochrome camera on ROVs/AUVs over 18 km tethered operation, the largest inspection of its kind in Asia.


Canal Crack-Propagation Inspection Using ROV + Sonar

Integrated Oculus 750d sonar on a custom ROV frame and performed underwater crack-propagation analysis at 9m depth and 2.3 m/s water velocity.


Autonomous Pill-Dispensing Healthcare Robot (COVID-19)

Designed an autonomous robot integrating facial recognition, RFID-based navigation, and multi-pill dispensing for safe patient-care workflows during COVID-19.


Journey

ML & Robotics

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