Odrive 3.6 Schematic _hot_ Jun 2026
The Odrive 3.6 is a highly versatile motor controller that supports a wide range of motor types, including brushless DC (BLDC), permanent magnet synchronous (PMSM), and asynchronous induction motors. The board is designed to operate at high currents and voltages, making it suitable for demanding applications such as robotics, CNC machines, and electric vehicles.
). This allows real-time current-sense amplifier gain setting and fault reporting.
Before diving into the schematics, it’s important to understand why you should look beyond the user guide:
The design and development of the ODrive 3.6 schematic involve a combination of advanced simulation tools, hardware design, and software development. The process typically includes: odrive 3.6 schematic
The ODrive 3.6 schematic incorporates a dedicated brake chopper circuit:
Features dual motor outputs (M0 and M1) capable of 120A peak current per motor. It includes current shunt resistors (0.0005 ) for precise torque control. Brake Resistor Interface:
Place exposed pad areas on the bottom of the PCB directly under the MOSFETs to allow thermal interface pads to pull heat out into an aluminum heatsink. 7. Troubleshooting Schematic-Related Faults Probable Schematic/Component Culprit Diagnostic Step AUX MOSFET or configuration missing. The Odrive 3
Utilize heavy copper weights (2 oz or 3 oz copper thickness minimum).
The v3.6 is available in two main variants: a 24V version and a 56V version. The board's main power input, which can be, for example, a 36V battery pack, is connected directly to the DC terminals. A key point from the community is that the ODrive board itself does not power its logic via USB. It have this main DC power supply connected, even if only communicating over USB, as the USB port is only for data.
The core schematic for the v3.6 board is available in the official repository on GitHub, primarily as a PDF file that can be opened with any standard PDF viewer. While the GitHub repository contains the complete design files, including PCB layouts and fabrication outputs, the schematic_v3.6.pdf file is the central resource for understanding the circuit. It includes current shunt resistors (0
The schematic is open-source hardware (OSHWA certified). You can find it at:
To achieve precise control, the ODrive requires feedback on the rotor's position. The v3.6 is designed to work with various sensors. The primary feedback connectors are J4 (for Encoder) and J5 (for Hall sensors, though many users simply call the main encoder input J4).
