curriculum vitae

General Information

Full Name Izzat Ullah, Syed
Contact sizzatullah [at] islander[dot]tamucc[dot]edu
Languages English (fluent), Urdu/Hindi (fluent), Arabic (beginner)

Education

  • 2022 - 2026
    Texas A&M University-Corpus Christi – Ph.D. in Computer Science (Robotics & Artificial Intelligence)
    • Advised by Prof. Jose Baca
    • GPA: 3.75 (4.0 scale)
    • Research Topic: Uncertainty-Aware Probabilistic Forecasting of Non-Cooperative Dynamic Obstacles for Safe Autonomous Aerial Navigation
    • Thesis committee: Jose Baca (Chair), Carlos Rubio Medrano, Pablo Rangel, Tianxing Chu
  • 2017 - 2019
    Lahore University of Management Sciences (LUMS) – M.S. in Electrical Engineering (Robotics & Control)
    • Advised by Prof. Abubakr Muhammad
    • GPA: 3.16 (4.0 scale)
    • Thesis: Vision-Based Autonomous Mapping & Obstacle Avoidance for a Micro-Aerial Vehicle (MAV) Navigating Canal
  • 2012 - 2016
    Balochistan University of I.T, Engineering and Management Sciences (BUITEMS) – B.S. in Electrical(Communication) Engineering
    • GPA: 3.83/4.0 (Ranked 2nd out of 140 students, Silver Medalist)

Prefessional Experience

  • 2022 - now
    Graduate Research Assistant at Texas A&M University-Corpus Christi
    • Corpus Christi, TX, USA
    • Developed POF+MADER, a novel UAV trajectory planner integrating real-time probabilistic obstacle filtering with optimization-based planning, achieving 39% collision reduction in simulation and 25% in hardware trials with Crazyflie drones.
    • Developed and released SynTraG, an open-source parametric 3D synthetic trajectory generator combining kinematic primitives and stochastic modeling to emulate non-cooperative aerial behaviors, enabling robust training and standardized benchmarking of UAV trajectory forecasting models.
    • Built transformer-based multi-modal forecasting system that predict long-horizon trajectories of non-cooperative, non-linear dynamic obstacles for safer UAV navigation in complex environments.
    • Authored 4 research papers (1 journal paper under final review and 1 other submitted, 1 conference paper published, and 1 other accepted to be published) on trajectory planning, obstacle avoidance, and multi-modal learning for robotics.
  • 2019-22
    Team Lead at National Center of Robotics & Automation
    • Led team of 10 researchers developing search and rescue robots using formal methods and deep reinforcement learning, coordinating research efforts and managing project timelines.
    • Contributed to assistive social robot project utilizing natural language processing for context- aware human-robot communication in varied environments.
    • Published 2 conference papers on deep reinforcement learning-based snake robot control and autonomous navigation.
  • Summer 2019
    Visiting Researcher at The Robotics Research Lab, TU kaiserslautern, Germany
    • Created a realistic canal-like environment in Unreal Engine (UE4) and Microsoft AirSim for testing autonomous drone navigation in challenging outdoor scenarios.
    • Implemented advanced motion and trajectory planning algorithms, ensuring autonomous drone navigation with collision avoidance
    • Published 1 conference paper on autonomous navigation of UAVs in a cluttered canal-like environment.
  • Spring 2019
    Research Assistant at National Center of Robotics & Automation
    • Evaluated motion planning and obstacle avoidance algorithms (RRT*, A*, dynamic window approach) for safe drone navigation in dynamic environments.
    • Developed point cloud fusion pipeline integrating stereo camera and 2D LiDAR data, improving environment perception and navigation accuracy.
  • Spring 2018
    Teaching Assistant at Lahore University of Management Scinces (LUMS)
    • Courses: Robot Motion Planning, Probability, and Mobile Robotics
    • Assisted instructor in designing the courses, construct tests, prepare materials, and grade assignment

Technical Skills

  • Programming
    • Python (PyTorch, NumPy, SciPy, Pandas, scikit-learn), C++, MATLAB, Shell Scripting, CMake, Bash
  • Simulation
    • ROS/ROS2, Gazebo, CARLA, Microsoft AirSim, Unreal Engine, MoveIt, PyBullet
  • ML & AI
    • Deep Learning, Reinforcement Learning (DQN, PPO, SAC), Transformer Architectures, Graph Neural Networks (GNNs), Probabilistic Modeling, Multimodal Learning, Time-Series Forecasting, Computer Vision
  • Planning & Control
    • A*, D*, RRT*, PRM, Model Predictive Control (MPC), Trajectory Optimization, Multi-Agent Planning, Feedback and Digital Control Systems, Optimization (CVX, Gurobi, CVXPY)
  • Perception
    • SLAM, Sensor Fusion, IMUs, LiDAR, RGB-D and Stereo Cameras, Vision-based Localization
  • Hardware
    • Crazyflie Drones, TurtleBot3, Leo Rover, UR5 Manipulator, VICON and OptiTrack Motion Capture Systems
  • Tools
    • Docker, Git, Linux (Ubuntu), SolidWorks, LabVIEW, OriginLab, LaTeX, CI/CD Pipelines

Honors and Awards

  • 2022-25
    Ph.D. Research Fully Supported by NSF Grant
  • 2025
    IEEE ICRA 2025 Attendee
    • Atlanta, GA
  • 2023
    1st Place Engineering Research
    • 11th Annual MSGSO Research Symposium
  • 2023
    3rd Place Engineering & Computer Science
    • 18th Annual TAMUS Pathways Research Symposium
  • 2023
    IEEE RAS Summer School on Multi-Robot Systems (Participant)
    • Czech Technical University
  • 2022
    British Council STEM Training Grant (£20,000)
    • Secured funding to train higher education faculty in STEM teaching and research practices
  • 2017
    Fully Funded Academic Excellence Scholarship for Entire Master's Degree
    • Lahore University of Management Sciences (LUMS)
  • 2016
    Silver Medalist in B.S. Telecommunication Engineering
    • BUITEMS

Selected Projects

  • 2022 - now
    DRL-Based Obstacle Avoidance for UAVs
    • Built end-to-end deep reinforcement learning pipeline in Unreal Engine and Microsoft AirSim achieving 95% collision-free navigation in complex indoor environments. Implemented PPO and SAC algorithms with curriculum learning.
  • 2019-22
    Autonomous Restaurant Robot
    • Developed ROS/Gazebo-based serving robot with optimized path planning (A*, dynamic win- dow approach), achieving good navigation success rate in simulated restaurant environment with dynamic obstacles.
  • Summer 2019
    Multi-Agent Urban Navigation
    • Created CARLA/ROS simulation environment for testing autonomous navigation algorithms with realistic traffic patterns, pedestrian behaviors, and urban infrastructure constraints.
  • Spring 2019
    Agricultural Robot Navigation
    • Designed autonomous robot in ROS/Gazebo with sensor fusion (camera, IMU, GPS) for field mapping and crop row following with centimeter-level accuracy.

Professional Service

  • 2024-25
    Reviewer
    • IEEE ICRA (2024, 2025), IEEE/RSJ IROS (2025), IEEE RA-L, IEEE Access, Journal of Climbing and Walking Robots, MDPI (Drones)
  • 2022-present
    Mentorship
    • Mentor for undergraduate research students (2022–present); Robotics outreach programs for high school students (2023–present)