Board bring-up
Clock, GPIO, ADC, timers, DMA, UART, SPI, I2C, CAN, USB and target validation.
STM32 firmware development for embedded products
Dedicated STM32 firmware support for teams that need to move from board bring-up to a stable product. Work covers clock tree, peripherals, DMA, interrupts, low power, RTOS, bootloaders, OTA and diagnostics.
How we can help
RTOS architecture
FreeRTOS, Zephyr or bare-metal firmware organized around real timing and memory limits.
Bootloader and OTA
Signed images, dual-bank strategy, rollback and robust update procedures.
How we work
Context and goals
Review goals, constraints, existing code or hardware documentation.
Architecture and plan
Define risks, architecture choices and a practical execution plan.
Development and verification
Work iteratively on real targets, with measurable checkpoints.
Delivery and support
Deliver code, documentation and technical decisions that the team can maintain.
A new idea or an existing project? Tell us where you are starting from.
The service in detail
Open a topic to explore activities, technical choices and scope.
Where STM32 projects usually need help
STM32 is a broad ecosystem. The hard part is rarely making the first demo work; it is keeping timing, memory, updates and diagnostics under control as the product grows.
- Bring-up of STM32F, STM32G, STM32L, STM32U, STM32H or STM32N based boards.
- Stability issues, sporadic resets, interrupt latency or hard-to-reproduce bugs.
- Migration from prototype code to modular firmware with repeatable builds.
- Secure boot, OTA, diagnostic logs and field maintenance strategy.
Debug and tests
- Debug and tests
- Trace, stack and heap analysis, unit tests, hardware-in-the-loop and validation reports.
Frequently asked questions
Can you use STM32CubeIDE or CMake?
Yes. STM32CubeIDE can be useful for bring-up; CMake is often better for repeatable builds, CI and product maintenance.
Can you debug existing STM32 firmware?
Yes. The work can focus on isolating faults, memory issues, timing problems and architecture bottlenecks.
Do you support STM32 AI scenarios?
Yes, especially when the model must respect memory, latency and power limits on real hardware.
Let’s discuss your project
Tell us your goal, what is already available and what needs to improve. We can then assess the next step together.