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Programme · Fixed-wing VTOL UAV

SHADOWLYNX

Fixed-wing VTOL platform designed for extended atmospheric data collection, aerial imaging and autonomous mission profiling over remote terrain.

Programme status
ClassFixed-wing VTOL UAV
AirframeComposite fibre
GuidanceFully autonomous, no pilot required
WingspanNot yet specified
EnduranceNot yet specified
StagePre-prototyping
ShadowLynx CAD model: wing ribs and spar structure, the fuselage frames, and the fin on its tail boom
CAD render. Structural model, wing ribs and fuselage frames. No airframe has been built

Programme

Nothing has been built yet

ShadowLynx is at pre-prototyping. The airframe geometry, the mass budget and the propulsion are not frozen, so this page carries no wingspan, no maximum take-off weight, no motor, no battery, no speed and no endurance. Those rows say so instead of carrying an estimate.

What is settled is the architecture: a fixed-wing airframe with vertical take-off and landing, a composite structure, and a guidance stack built on a custom flight controller with waypoint navigation, MagNav, geofencing and a SATCOM downlink. The aircraft is designed to fly completely autonomously, with AI reasoning integrated into that flight controller. Those rows are on the sheet because they record decisions rather than measurements.

Mission

What it is designed to carry

The payload bay is interchangeable, so the sensor set is what decides the mission.

Design missions are atmospheric profiling, aerial imaging, search and rescue, defence and payload delivery, at low to medium altitude over extended mission windows. Telemetry runs over SATCOM with a line-of-sight link alongside it, and the ground station keeps a manoeuvring override.

The bay is a hot-swap fitting: a gimbal-stabilised camera, an atmospheric package reading pressure, temperature, humidity, radiation and wind, or an experimental electronics payload. Payload capacity is one of the ten values still to be specified, and it is the one that decides which of those can fly together.

Reference sheet

ShadowLynx V1 specification

Airframe and structure · as designed
ConfigurationFixed-wing VTOL
MaterialComposite fibre
WingspanNot yet specified
Fuselage lengthNot yet specified
MTOWNot yet specified
Propulsion and performance · nothing specified yet
MotorNot yet specified
BatteryNot yet specified
Cruise speedNot yet specified
Max speedNot yet specified
EnduranceNot yet specified
Avionics and guidance · as specified
AutopilotCustom flight controller and firmware, with integrated AI reasoning
NavigationWaypoints, MagNav, geofencing
GNSSMulti-band
TelemetrySATCOM and line-of-sight link
Ground stationLine-of-sight manoeuvring override
Payload and sensors · as specified
Payload bayHot-swap, interchangeable
ImagingGimbal-stabilised camera
AtmosphericPressure, temperature, humidity, radiation, wind
Payload capacityNot yet specified
VideoNot yet specified

The split between the full tables and the empty ones is not arbitrary. Everything settled on paper is here; everything that needs an airframe to exist is not. No row has been deleted and no value has been estimated.

CAD render of the ShadowLynx winglet and outer wing seen from below, with a woven composite surface finish
CAD render. Winglet and outer wing. No airframe has been built

Development

Four steps to V2

Nothing on this timeline is complete. The first step is the one that produces hardware of any kind.

  1. 2026Next

    Airframe validation

    An EPP prototype to check wing geometry, the centre of gravity envelope and manual handling at low speed. Not the composite airframe: the first ShadowLynx of any kind.

  2. 2027Planned

    Autopilot integration

    Avionics testing for autonomous integration, with FPGA work alongside it.

  3. 2027Planned

    Autonomous waypoints

    A full automatic mission: GPS waypoints, MagNav validation, return to launch and geofence observation.

  4. 2028Planned

    V2

    Full systems integration, greater autonomy and research capability.

Contact

The airframe is not frozen

ShadowLynx is at the stage where a payload or a mission profile can still change the aircraft. If you need something specific measured, imaged or carried, the geometry is still open.