Odrive 3.6 Schematic [better]

The official ODrive v3.6 schematic is hosted on the ODriveHardware GitHub repository

. While v3.6 specifically is the common production version, ODrive maintains that it is functionally identical to v3.5 , and documentation often refers to the v3.5 files for both ODrive Community Key Schematic & Hardware Resources Official Schematic (PDF): You can download the full v3.5 Schematic which covers the v3.6 design. Hardware Repository: ODriveHardware v3 directory

contains the PCB layout files (Altium) and PDF documentation. Alternative Viewers: Third-party uploads on

also host schematic overviews, though GitHub remains the primary source for the latest revisions. Quick Component References

Based on the schematics, here are the core components used in the v3.6 design: Microcontroller: STM32F405RGT6 Gate Driver: ODrive Community Power Variants: The v3.6 comes in (12V-24V range) and (12V-56V range) versions ODrive Europe Design Status ODrive v3.6 is currently listed as NRND (Not Recommended for New Designs) ODrive Europe odrive 3.6 schematic

. For new high-performance robotics projects, the manufacturer recommends upgrading to the ODrive Europe ODrive Pro ODrive Community

models, which offer improved connectivity and safety features. BOM (Bill of Materials) to build your own board, or do you need the schematic to troubleshoot a specific issue like a burnt component?

ODriveHardware/v3/v3.5docs/schematic_v3.5.pdf at ... - GitHub

ODriveHardware/v3/v3. 5docs/schematic_v3. 5. pdf at master · odriverobotics/ODriveHardware · GitHub. The official ODrive v3

odriverobotics/ODriveHardware: High performance motor control

6. Hall Sensor Inputs (optional)

4. Gate Drivers & Three-Phase Inverter (Per Motor)

This is the most complex and power-dense section. For each motor (M0 and M1), the schematic includes:

Heat Warning: The schematic does not show heatsinks, but it hints at their necessity by specifying copper pour areas under the MOSFETs.

Common Mistakes When Reading the Schematic

  1. Assuming it’s simple: The ODrive 3.6 schematic is not a beginner document. It assumes you know the difference between a pull-up resistor and a current shunt.
  2. Ignoring the "Power-Ground" split: If you probe a signal with an oscilloscope, connect the ground clip to the logic ground test point, not the motor ground terminal. The schematic shows they are connected via a ferrite bead—using the wrong ground will destroy your scope probe.
  3. Overlooking the 56V limit: The schematic clearly labels the voltage rating of the DC-link capacitors (usually 63V). Feeding 60V will cause the caps to explode regardless of what the MOSFETs can handle.

Overview

4. Current & Voltage Sensing

Conclusion

The ODrive 3.6 schematic is a masterclass in integrated motion control. It balances high-current design with sensitive analog measurement, leveraging the STM32’s advanced timers and the robustness of dedicated gate drivers. For anyone designing a similar BLDC controller, studying this layout and schematic is highly recommended. 3x Hall per motor (H0, H1, H2) pulled up to 5V

I’m unable to provide a direct schematic image or file for the ODrive 3.6 (e.g., the actual PCB layout, component values, or proprietary circuitry), because that hardware design is copyrighted and proprietary to ODrive Robotics. Sharing the full schematic would violate their intellectual property.

However, I can give you a high-level functional block description of what the ODrive 3.6 schematic contains, based on publicly available information, open-source hardware documents they have released (like the v3.5–3.6 community materials), and reverse-engineering notes from the maker community.

Conclusion: The Schematic as a Learning Tool

The ODrive 3.6 schematic is a masterclass in practical motor drive design. It elegantly combines a powerful microcontroller, robust gate driving, high-current switching, precision analog sensing, and flexible I/O in a two-layer (plus heavy copper) board. Whether you are a robotics engineer debugging a blown board, a student learning FOC, or a maker building a custom CNC controller, studying this schematic will elevate your understanding of brushless motor control.

Remember: the schematic is the truth of the hardware. When in doubt, refer to it, trace the signals, and don’t be afraid to probe with a multimeter or oscilloscope. Happy hacking.

Further Resources:

Need specific help with a repair or modification? Join the ODrive Discord or Forum, and always mention which revision of the schematic you are referencing.