A Pi rover needs a microcontroller for motors, a stable power tree and a camera stack that does not starve the CPU.
A Raspberry Pi rover is best when the Pi handles vision and networking while a microcontroller handles motors and safety. This split prevents Linux pauses from turning into runaway motion.
The power system is the make-or-break part. Use one battery pack with proper buck converters, fusing and a hard motor disable path.
Vision, web UI and high-level logic
Real-time motor PWM, encoders and safety heartbeat
Teleop and computer vision
Stable base with room for battery and electronics
Current-rated drivers for the chosen motors
Main battery for drive and compute
Add a Coral TPU or use lighter models for object detection.
Use larger wheels, sealed boxes and LoRa telemetry.
Treat the generated output as a prototype plan, not a certified product. Body-adjacent, high-voltage, optical-energy and mobility builds need qualified review before real-world use.
It should not. Use a motor driver and preferably an ESP32 or other microcontroller for motor timing.
Undersized 5V regulators and shared motor noise.
No. ROS is useful later, but a simple web UI and serial protocol are enough for a first rover.
Start with this prompt prefilled, then let RoboHub generate the live parts list, wiring plan, CAD and firmware.
Generate build