YouTube Video: https://www.youtube.com/watch?v=2PIdxYJO_Ck.
Q-Octo uses a pair of CyberGear MicroMotors, which provide not only high torque and speed but also feedback such as current amp draw and position. To power the motors, 4 Parkside X20V drill batteries are used, providing 6-hour continuous runtime paired with robust and safe recharging.
Q-Octo is controlled via a Raspberry Pi Pico with the display and web server managed via a Raspberry Pi Pico W. The main pico communicates with the radio controller to receive control commands however, navigation via a separate onboard computer or via a flight controller is planned.
To build a Q-Octo, both a 3D printer and a laser cutter are required. It is sufficient to manufacture all 3D printed parts out of Esun PLA+, providing excellent durability. All laser-cut parts (*except the front and rear battery cover) can be cut from 6mm thick plyboard, which provides adequate rigidity and durability, assuming it is coated in outdoor paint.
- CAD design: https://github.com/JoshPattman/q-octo-cad
- CRSF Reciever for the RP2040 (Raspberry Pi Pico): https://github.com/britannio/pico_crsf
- EdgeTX transmitter script: https://github.com/q-octo/transmitter
These instructions are currently just notes that we made during development. Complete instructions will be produced if there is demand.
- Clone this repo.
- Run
git submodule update --init.
VSCode with the PlatformIO extension or CLion with the PlatformIO Plugin is recommended.
curl -fsSL https://bun.sh/install | bash (https://bun.sh/docs/installation#installing)
- https://arduino-pico.readthedocs.io/en/latest/platformio.html#current-state-of-development
- https://github.com/earlephilhower/arduino-pico?tab=readme-ov-file#windows-specific-notes
- Flatbuffers
- Adafruit CAN
- DFR0534 (for voice module)
- Libcanard
- pico_crsf
- Pimoroni pico display
- cybergear
- CRC
Q-Octo was originally designed for ELEC6212: Biologically Inspired Robotics, a fourth-year module at the University of Southampton. Q-Octo was inspired by Q-Whex.
