Visual Odometry & 3D Mapping for Rover Navigation
Method: Feature extraction, motion estimation, and sparse 3D map reconstruction using LiDAR and camera data. Result: Robust 3D mapping for autonomous rover navigation.
PhD student @ The George Washington University
Building smarter, safer autonomous systems|
I love building things especially autonomous rovers and systems that move and think on their own. My journey into security started during my undergrad, when a grey-hat hacker's session completely changed how I viewed technology. Since then, I've been fascinated by the idea of making autonomous systems not just intelligent, but secure and dependable. Today, my work focuses on cyber-physical system security, where I get to combine my love for hands-on engineering with solving complex, real-world problems.
Ph.D. in Computer Science
Focus: V2X Security, Sensor Security, Autonomous navigation, 3D perception, multi-modal sensor fusion.
Aug 2024 – Present
M.Tech. Software Systems (Cybersecurity)
Jan 2020 – Jul 2022
M.Sc. Computer Science
May 2016 – May 2019
Jul 2013 – May 2016
A selection of technologies and areas I work with.
Method: Feature extraction, motion estimation, and sparse 3D map reconstruction using LiDAR and camera data. Result: Robust 3D mapping for autonomous rover navigation.
Method: Trained models on in-vehicle network data to detect anomalies. Result: Early detection of abusive or unsafe network behavior.
Method: Edge deployment on Raspberry Pi and Jetson Nano. Result: Real-time anomaly detection in vehicle networks.
Method: Secure remote desktop orchestration for lab devices. Result: Reliable access to physical robotics setups from anywhere.
Method: ML for CO2 prediction on encrypted vehicle data (HE). Result: Privacy-preserving ITS insights without revealing raw data.