SPaT/R2X-based Navigation
Communication-assisted crosswalk navigation using signal phase and remaining-time information from roadside infrastructure.
Research
My research focuses on enabling autonomous mobile robots to understand and safely traverse signalized urban intersections by combining communication, robotic navigation, perception, and simulation.
Core Direction
Communication-assisted crosswalk navigation using signal phase and remaining-time information from roadside infrastructure.
Integration of localization, obstacle awareness, signal-aware decision logic, and safe velocity control for mobile robots.
Infrastructure-aware scene understanding for pedestrians, vehicles, traffic lights, occlusions, and complex crossing situations.
Current Progress
Recent work connects field experiments and simulation. The goal is to move from a signal-aware crossing algorithm toward a reproducible robotic system that can be tested in both real and digital-twin environments.
Developed a time-aware crosswalk decision framework using SPaT remaining-time information and a Time-to-Cross criterion.
Configured LiDAR, IMU, camera, odometry, joint states, and ROS 2 communication for a Delivery Robot simulation pipeline.
Applied LiDAR-based SLAM and navigation components for map generation, localization, and autonomous driving tests.
Preparing infrastructure-camera and simulation scenarios for future VLM-based interpretation of urban intersections.