STM32F103C8T6 based system board for embedded development This development board is built around the STM32F103C8T6 microcontroller, a performance ARM CortexM3 device designed for embedded projects. It offers a solid foundation for building, testing, and validating a wide range of applications. Key features and benefits MCU and performance: STM32F103C8T6 with a 72 MHz clock delivers responsive control and fast execution for embedded tasks. Memory: 64 KB flash memory provides ample space for firmware, data storage, and program updates. Flexible interfaces: multiple interfaces are available to connect peripherals and sensors, supporting versatile operation and easy system integration. Ecosystem compatibility: designed to work with standard STM32 development toolchains and workflows, enabling access to a broad set of libraries and resources. User audience: well suited for electronic engineers, embedded developers, hardware enthusiasts, and educational institutions seeking an advanced solution. What makes it useful Function: a capable microcontroller board that supports prototyping, development, and validation of embedded projects. Compatibility: aligns with common STM32 ecosystems and practice, facilitating collaboration and learning. Performance: 72 MHz operation with 64 KB flash memory enables efficient firmware execution and data handling. Readiness: designed to support rapid testing and iteration in various stages of hardware development. Ideal applications Prototyping and project development for embedded control, sensor interfacing, and actuator integration. Educational experiments and lab exercises to teach microcontroller programming, I/O interfacing, and debugging. Product validation and earlystage testing for hardware designs, including firmware verification and feature testing. Use scenarios Scenario 1: Rapid prototyping of a sensorbased control system, using the available interfaces to connect inputs from environment sensors and outputs to actuators for a proofofconcept. Scenario 2: Educational laboratory use, where students learn embedded C programming, peripheral interfacing, and debugging techniques with a practical, handson platform. Scenario 3: Earlystage product validation, enabling developers to implement core firmware, verify performance at the target clock speed, and evaluate system behavior before final hardware fabrication.