Design
We designed the aircraft in CAD and used computational fluid dynamics to compare options and refine its shape over several iterations, checking every change against the competition rules.
QMUAS is Queen Mary University of London's team in the IMechE UAS Challenge. Each year we design, build and fly a fixed-wing drone that runs its mission on autopilot, from take-off to a water payload drop and landing, with our safety pilot ready to take manual control at any time.
A Queen Mary Aerospace Society project, based in the School of Engineering and Materials Science and competing in the Institution of Mechanical Engineers' UAS Challenge.
The competition runs across the academic year. Every stage is judged, not just the final flight.
We pick a configuration and show it can meet the mission rules.
A full design and development report: aerodynamics, structures, payload, safety and cost.
Composite layups, 3D printing, wiring, then ground and bench testing of every system.
Judges check the aircraft is safe and airworthy before we're allowed to fly.
Autonomous take-off, waypoint mission, water drop and landing, in a 20 m box.
The 2026 IMechE UAS Challenge was QMUAS's first time competing in eight years.
Our first concept didn't perform well enough in analysis, so we went back and redesigned it: a bigger wing, a twin-motor layout and a streamlined carbon fibre fuselage.
It's built to fly the whole competition mission on autopilot, including take-off, the water payload drop and landing, with a safety pilot able to take over at any time.
At the competition it made it through scrutineering, passing the technical and safety checks needed to progress. We took on 54 teams from 16 countries, and our strongest results came from our design work.
Next season, we're building on this to take on the flight missions.
Rankings out of 54 teams, from the official 2026 final scores.
From first sketch to the airfield, almost everything on the aircraft was designed and made by the team.
We designed the aircraft in CAD and used computational fluid dynamics to compare options and refine its shape over several iterations, checking every change against the competition rules.
The airframe is made in-house from carbon fibre composites and 3D-printed parts, using materials and training from our sponsors. We wired and integrated all of the electronics ourselves.
Before it flies, we test in stages: electronics on the bench, missions in simulation, then ground tests of every system, so problems show up on the ground instead of in the air.
Behind the scenes of building and flying our aircraft. Select a photo to see it larger.
Test-fitting the wing to the fuselage in the SEMS Makerspace.
Talking the aircraft through with a competition official at the 2026 IMechE UAS Challenge.
Competition officials checking over the aircraft on the airfield.
Working on the aircraft in the team tent.
We're recruiting for next season. No previous experience is needed, and you don't have to be on an aerospace course: last year's team included electrical engineers and foundation-year students.
This year's committee. Photos and names are being added as roles are confirmed.
Project Lead
Imen Ouared
Chief Engineer
Morshid Sarker
Head of Operations
Ashraf Fahim
Aerostructures Lead
Name to be confirmed
Payload Lead
Name to be confirmed
Propulsion Lead
Name to be confirmed
Avionics & Software Lead
Name to be confirmed
Avionics & Software Deputy
Name to be confirmed
Academic supervisor: Dr Declan Carolan, School of Engineering and Materials Science
Former QMUAS members have gone on to work and study at: