Linked images from many on-road vehicles turn scattered city object captures into time-based behavior analysis and richer urban dynamics.
Radar scans the road ahead to confirm and geolocate potholes, improving low-visibility detection and map-based hazard sharing.
Historical obstacle confidence scores help vehicles ignore overdrivable road cracks and bumps, reducing false positives in path planning.
Modified scene map data helps autonomous vehicles predict rare-object behavior more accurately without requiring large low-frequency training sets.
Historical obstacle confidence helps vehicles filter sensor false positives and keep drivable paths stable around overdrivable road features.
Fleet vehicle traces are used to infer obscured right-of-way rules and keep autonomy maps accurate without manual labeling.
Directed topological graph planning adapts automatic parking paths to user preferences while handling different map data formats.
A speed-based relevance polygon filters irrelevant objects from vehicle control planning, cutting latency while preserving collision avoidance focus.
Road-anchored AR maneuver markings improve long-range visibility and cut driver interpretation effort during complex turns.
Dual-thread map processing keeps the electronic horizon real-time and fresh, with timestamp checks and lockstep error detection.