§ R&D · Programme 02 · D2400 Long-endurance fixed-wing UAV · Class 3 · < 25 kg MTOW
Innovation & Vision

A different
class of unmanned aircraft.

Fixed-wing isn't longer-range rotary. It is a different platform: efficient forward flight, hours-long endurance, mission autonomy that holds across the link drop, payloads that swap without re-engineering the airframe.

The D2400 is the first aircraft we are building around that thesis.

FIG. 01 D2400 · three-view orthographic projection Scale 1:24 · rev. 04-A
PLAN — TOP 3.20 m · wingspan 1.60 m 01 Composite spar · primary wing structure 02 Nose bay · sensor pkg. 1 03 Centre & tail bays · sensor pkgs. 2 + 3 04 Twin pusher propulsion · redundant ESC
PROFILE — SIDE 1.60 m
ELEVATION — FRONT 0.34 m
§ 01 · The frontier we're crossing

Coverage at the scale of the work.

Industrial missions don't fit into a 6 km rotary radius. The math of long-range fixed-wing closes the gap between what the air can reach and what the ground actually needs.

Single-mission coverage From a single launch point · no relocation
Light rotary multicopter Sub-30 min flight · battery-bound 113km²
Heavy-lift rotorcraft 90 min flight · still rotor-limited 2,827km²
D2400 fixed-wing 4.5 h forward flight · efficient cruise 321,699km²
§ 02 · Engineering depth

Four disciplines, one aircraft.

The platform is the integration of four research tracks. Each one is its own engineering programme — together they put a long-endurance aircraft in the hands of an industrial operator.

§ 01

Airframe & aerodynamics

Composite spar architecture engineered for a 4.5-hour cruise envelope at 22 m/s, with structural margin for industrial-grade abuse and field maintenance.

  • Composite wing spars · 3.2 m span
  • Forward-flight efficiency at industrial cruise
  • Catapult, hand and runway launch options
  • Belly & chute recovery profiles
§ 02

Avionics & flight control

Redundant avionics stack and a custom flight-control board purpose-built for long-endurance industrial missions where the link breaks and the aircraft has to finish on its own.

  • Dual-redundant flight controller
  • Encrypted C2 link · LTE failover
  • Lost-link autoland with terrain awareness
  • Mission state preserved across power events
§ 03

Autonomy & planning

A mission-planning stack that thinks in coverage geometry, not waypoints — operators describe the area, the aircraft solves the flight pattern, the wind, and the payload triggers.

  • Geometry-driven coverage planning
  • Wind-aware reroute mid-mission
  • Sensor-trigger scheduling baked into the plan
  • Onboard health monitoring · pilot-grade alarms
§ 04

Payload integration

Three independent bays with standard mechanical and electrical interfaces — the same airframe carries multispectral, thermal, LiDAR, methane sniffers, or partner payloads with no airframe-side rework.

  • 3 modular payload bays
  • Standard mechanical & power interfaces
  • Live payload telemetry on the C2 link
  • Partner-payload integration programme
§ 03 · What the platform is for

Three capabilities no other airframe ships together.

Long endurance, operator-grade autonomy, and payload modularity — combined in one industrial aircraft, engineered to be flown by your team, not ours.

Endurance
§ 01

Hours of forward flight, where rotorcraft run out of battery.

Efficient forward-flight aerodynamics turn the same battery budget into 4.5 hours of continuous coverage. One launch point reaches what otherwise takes a whole day of relocations.

4.5h Endurance
320km Range from launch
Autonomy
§ 02

The mission, planned and flown by the aircraft.

Operators describe the area to be covered. The aircraft solves the flight geometry, accounts for wind, schedules payload triggers, and brings itself home — even if the link drops mid-mission.

1 Operator per fleet
0 Hand-flown waypoints
Modularity
§ 03

One airframe. Every industrial payload class.

Three bays. Standard interfaces. The same aircraft flies a multispectral survey today and a methane sniffer tomorrow — without re-engineering the airframe or retraining the operator.

3 Payload bays
8+ Industrial verticals
§ 04 · Industrial potential

One platform, eight verticals.

Long-range coverage plus modular payload bays positions the aircraft across a wide range of industries. Where we have partners flying with us today, where we are looking next.

§ 05 · Research horizon

The D2400 is where we start.

Industrial aerial autonomy is a multi-aircraft, multi-decade problem. The D-class airframe is the first deliverable on a roadmap that goes well past it.

Horizon I In flight

The D2400, fielded.

320 km · 4.5 h · industrial fleet operations.

  • Industrial aerial coverage
  • Modular payload programme
  • Operator-grade autonomy
Horizon II Next aircraft

Extended endurance.

A second airframe in the same family, targeting 8 h continuous flight and 700 km range.

  • Hybrid-electric powertrain research
  • High-aspect-ratio wing geometry
  • Endurance fuel cell partnerships
Horizon III Research horizon

Multi-aircraft autonomy.

Coordinated flights — multiple D-class aircraft covering a corridor together, planned and supervised by one operator.

  • Shared mission planner
  • Inter-aircraft deconfliction
  • Coordinated payload coverage
Horizon IV Research horizon

BVLOS at industrial scale.

Beyond-visual-line-of-sight operations as the default for industrial customers in Canadian airspace.

  • Transport Canada SFOC pathway
  • Detect-and-avoid integration
  • Operator certification programme
Research collaboration

Bring us the missions.

We are building this aircraft with — and for — the operators who fly it. If your work runs into the limits of what the current generation of UAVs can do, we want to hear about it.

Partner programme
Operators Bring missions, fly the airframe
Integrators Payload integration partners
Research University & lab collaborations
Direct line rd@auav.ca