Navigate beyond GPS
We combine perception, state estimation, and sensor fusion to develop navigation for environments where satellite positioning is unavailable.
Seven capabilities make up the autonomy brain, and nine problems are where it goes to work. Everything runs on the aircraft: no GPS required, no link to the ground required, and verifiable by design.
Different aircraft. Shared software foundations. We design focused modules with clear interfaces so individual components can evolve without rebuilding the whole system.
We combine perception, state estimation, and sensor fusion to develop navigation for environments where satellite positioning is unavailable.
Clear interfaces. Explicit behavior. We design modules that can be inspected and tested individually, then assessed as part of the complete system.
We design end-to-end encrypted communication to protect commands and mission data between their intended endpoints.
Learned behaviour grounded in the aircraft’s own sensing and dynamics. Where fixed rules end, the system adapts to the situation in front of it: unexpected obstacles, changing conditions, degraded sensors. Always within verified bounds.
The aircraft understands what surrounds it: buildings, roads, vehicles, people, hazards. This environmental context lets it navigate semantically, take instructions in mission terms, and reason about what it sees rather than only where things are.
Aircraft coordinate directly with each other. Tasks are negotiated, shared and re-allocated in the field, without a central controller. Missions continue when a link drops or a unit fails.
Every flight builds on the ones before it: maps, patterns, prior detections and operator knowledge. Information is learned and grounded in the domain of use, so the system improves across deployments, not just within a single mission.
An autonomy brain that flies without GPS, understands its surroundings, remembers what it has seen and coordinates with others changes what a small aircraft can do. These are the problems we are building for.
Airports, power plants, ports, rail hubs, data centres, hospitals and public events need to know what is coming, where and when. We fuse ground sensors and airborne scouts into one live picture, detect small, low and slow objects early, track them, and warn people, operators and civilian infrastructure providers with time to act.
Once a threat is confirmed, seconds matter. The brain guides interceptor drones and ground responders to the right point in space and time. GPS-denied terminal guidance, coordination of several interceptors, and a clean hand-off from the tracking picture. The decision stays with people. The flying does not.
Persistent eyes over an area of interest without a pilot per aircraft. Aircraft plan their own coverage, understand what they see, report what matters and keep flying when links or satellites are jammed. Encrypted end to end between aircraft and operator.
Power lines, pipelines, bridges, wind turbines, rail and industrial sites. Aircraft fly the same route again and again, close to structures and without GPS, compare what they see with what they remember, and flag change and damage before it becomes an outage.
Collapsed buildings, forests, caves, ships and industrial halls. Autonomous flight through unknown, GPS-denied spaces, semantic detection of people and hazards, and several aircraft sharing the search, so responders arrive with a location instead of a guess.
Floods, wildfires, earthquakes and storms make yesterday’s maps useless. Aircraft build the current picture on the fly, assess damage, locate people and infrastructure at risk, and keep the picture updated as the situation evolves.
Long perimeters, borders and remote sites cannot be watched by people alone. Aircraft patrol, detect and classify activity, re-task themselves when something happens, and hand a confirmed track to the operator instead of hours of video.
Medical supplies, spare parts and equipment to places where satellite navigation is jammed or absent. Disaster zones, underground, indoors, or contested areas. Navigation from onboard sensing, verified mission logic, and secure links.
Ship- and platform-launched aircraft that patrol harbours, inspect offshore installations and detect approaching vessels and drones. In wind, in spray, and without a reliable GPS fix next to steel structures.
The brain is not tied to one airframe or one mission. If your problem involves aircraft, autonomy and environments where GPS cannot be trusted, we would like to hear about it.
Contact
Tell us about your aircraft, your environment and the problem you need solved.
Team
Three researchers from robotics, navigation and software security, with an advisory board from both universities.
About
Where Vasco comes from, what the autonomy brain is, and where it is going.