V2.2 - Mh-fc

Multiple UARTs for connecting radio receivers (e.g., FlySky), GPS modules, and telemetry systems.

A standout feature of the MH-FC V2.2 is its setup, which includes two different sensors to handle flight data:

: Supports bi-directional radio data transmission between the FC and a Ground Control Station (GCS).

To build a functional drone using this board, developers typically pair it with the standard training components recommended by M-HIVE: QAV210 carbon fiber frame. Mh-fc V2.2

Your device is in a regulatory approval process (FCC/CE). Any firmware change will require recertification. Wait for the next production batch.

: Handling PWM (Pulse Width Modulation) for BLDC motor speed control and ESC (Electronic Speed Controller) calibration.

At its core, the MH-FC V2.2 utilizes the (MCU) family. This choice of hardware provides several advantages for developers: Multiple UARTs for connecting radio receivers (e

The architectural layout of the board provides a deep dive into 32-bit ARM processing and real-time execution.

1. Hardware Abstraction Layer (HAL) & Register Initialization

I can provide a specific pinout map or troubleshooting steps for your exact setup. Share public link Your device is in a regulatory approval process (FCC/CE)

For pilots building FPV (First-Person View) quadcopters, Betaflight is the industry standard. The MH-FC V2.2 targets can be flashed via a standard USB-C or Micro-USB interface. Betaflight allows users to configure motor mapping, set up receiver channels, and adjust PID/Feedforward loops for aggressive freestyle or racing maneuvers. INAV for Navigation

Built-in battery voltage checker, passive buzzer for status debugging, and I2C EEPROM to store custom PID gains. 🛠️ Typical Companion Drone Parts

: Supports NEO M8N GPS modules via UART using UBX message parsing.