An Arduino Nano, a motion sensor, and a radio receiver became a custom flight-controller board for a printed-and-tube quadcopter.
The control path was drawn before the airframe was closed up. A radio sets the sticks, the Nano mixes those commands with motion from the sensor, and four motor outputs drive the corners.
Pitch, roll, yaw, throttle, and auxiliary channels
Arduino Nano with MPU-6050 on I2C
One command for each corner of the frame
The schematic maps the battery, the motion sensor, and the four ESC outputs onto the Nano.
An 11.1 V lithium pack feeds the craft. The MPU-6050 sits on the five-volt logic rail. Motor lines leave the Nano for the front-left, front-right, back-left, and back-right ESCs.
The flight computer, first on perfboard and then on the custom board.
Six-axis motion sensor read over I2C for attitude.
RadioLink receiver that brings the pilot’s channels into the controller.
Olive printed center pod and motor mounts on aluminum arms, with a brushless motor at each corner.
The assembled quad, the hand-wired prototype, and the finished flight board.
A recording from the completed quad: printed center, tube arms, and four motors. Later clips in the project folder continue the same test series.
Four motors on tube arms around the olive printed center pod.
Printed body with the power switch, arm sockets, and standoffs.
The manufactured Drone 1.0 board beside the R8EF receiver.
The first controller, wired by hand before the PCB replaced it.
KiCad view of the board signed Anthony Nistor, Drone 1.0.
Center pod, four arms, and motor mounts in FreeCAD.
66 photographs and drawings from this build.
| PARAMETER | SPECIFICATION / VALUE |
|---|---|
| Flight Computer | Arduino Nano |
| Motion Sensor | MPU-6050 over I2C |
| Receiver | RadioLink R8EF |
| Motor Outputs | Front left, front right, back left, back right |
| Battery | 3-cell lithium pack, 11.1 V on the schematic |
| Controller Board | Custom PCB, Drone 1.0, Anthony Nistor |
| Airframe | Printed center and mounts, aluminum tube arms |