CubePilot and Pixhawk carrier boards

The board your autopilot plugs into, designed for the airframe you actually have rather than the development rig.

Cube Orange+CubePilotPixhawkArduPilotPX4MAVLinkGNSS RTK

Fit

When this is the right choice

Choose it when

  • You are building on a proven autopilot and need airframe-specific I/O
  • Mechanical constraints rule out any off-the-shelf carrier
  • You need radios, GNSS and payload interfaces integrated rather than cable-tied on
  • The program needs an ITAR-free, EU-designed supply chain

Look elsewhere when

  • A standard carrier fits your airframe — buy it, do not build it
  • You need a certified avionics stack, which is a different discipline entirely

Engineering

What’s actually hard about it

The parts that decide whether it works on the first spin, and the parts that cost a respin when they are wrong.

Radio co-existence

GNSS, cellular and telemetry in one airframe, competing for space and ground. Planned in the block diagram or discovered at pre-compliance.

Vibration and IMU mounting

The autopilot needs isolation to produce usable attitude data, and the board needs rigidity to survive. Those requirements fight.

Power under transmit transients

A cellular modem’s peak draw must not disturb the GNSS reference or brown out the flight controller.

Rigid-flex where nothing else fits

In a cylindrical body there is no room for board-to-board connectors, and every connector is a launch-shock failure point.

What we have built on it

A three-board rigid-flex carrier for a tube-launched fixed-wing UAV, following a component-level teardown and clean-room re-implementation of a Cube Orange+ class carrier.

Got a board to design — or one that won’t boot?

You talk to the engineer who would do the work. Reply within one business day, and we’ll sign your NDA before you go into detail.