Skip to content
GCC AI Research

Search

Results for "autonomous drones"

Dual Pose-Graph Semantic Localization for Vision-Based Autonomous Drone Racing

arXiv ·

This work presents a dual pose-graph architecture for robust real-time localization in autonomous drone racing. The system fuses monocular visual-inertial odometry with semantic gate detections, using a temporary graph to optimize multiple observations into refined constraints before promoting them to a persistent main graph. Evaluated on the TII-RATM dataset and deployed in the A2RL competition, it achieved a 56-74% reduction in Absolute Trajectory Error (ATE) compared to standalone VIO and reduced odometry drift by up to 4.2 meters per lap. Why it matters: This research significantly improves the reliability and accuracy of vision-based localization for high-speed autonomous drones, crucial for advanced robotics applications and competitive racing.

Technology Innovation Institute Achieves Fastest Speeds with Vision-based AI Drone Racing

TII ·

Technology Innovation Institute (TII) has developed AI-powered autonomous drones capable of navigating complex environments at speeds up to 80 km/h using only a camera and IMU sensor. The drones use onboard AI-driven visual odometry and reinforcement learning to adapt to their environment in real time. In direct competition, the TII drone set a best lap time of 4.38s, compared to 6.32s and 5.34s for human pilots. Why it matters: This research demonstrates the potential of AI-powered UAVs to surpass human-operated drones in agility and precision, with applications for the transport of goods and potentially people.

SSRC Partners with Purdue University on Game-Changing UAV Security Project

TII ·

TII's Secure Systems Research Center (SSRC) has partnered with Purdue University on a three-year cybersecurity project focused on ensuring the safe and efficient use of Unmanned Aerial Vehicles (UAVs) in urban environments. The collaboration will study security and resilience in cyber-physical and autonomous systems, addressing vulnerabilities in communication, navigation, and command and control. The project includes four phases: modeling and analysis of UAS security, developing algorithms for high-assurance autonomy, constructing an experimental environment, and testing mitigation strategies. Why it matters: The partnership enhances the UAE's capabilities in securing critical digital systems and fosters the growth of commercial autonomous drones and robots, opening new opportunities for enterprises.