Collision Avoidance
Systems that detect nearby hazards and warn or steer buses, ships, or drones away from collisions.
Business impact
- avoidable collisions — Abellio London reported a 29% reduction in avoidable collisions.
- injuries resulting from avoidable collisions — Abellio London reported a 60% reduction in injuries from avoidable collisions.
- collision-free flights — MIT reported that SANDO avoided all moving obstacles across 12 real-drone flights.
Data requirements
- video from installed cameras (image) — Used in the bus and ship deployments to detect hazards.
- bridge navigation sensors (sensor) — Used in the ship deployment to support situational awareness.
- sonar (sensor) — Named input for the ship system.
- radar (sensor) — Named input for the ship system.
- GPS (sensor) — Named input for the ship system.
- AIS (tabular) — Named input for the ship system.
AI methods and techniques
- object detection — Used to identify hazards in real time for the ship deployment.
- machine learning — Named in the ship deployment as part of the real-time object-detection system.
- route planning — Used in the drone system to build safe corridors around moving hazards.
- sensor fusion — The ship deployment combines bridge sensors and cameras to support collision avoidance.
- warning systems — The bus deployment issues audio and visual warnings to the driver.
Industries
Real-world evidence
3 documented case studies on record.
Companies using this: Abellio London, CMA CGM, MIT.
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