Embedded Systems Engineering with STM32

Live practical training on Zoom for engineers who want a structured path through peripherals, timing, communication, debugging, and real embedded system building.

Standard Course Live on Zoom 8 sessions 24 hours ST STM32 ecosystem

Learn STM32 from the ground up with practical implementation, hardware-aware thinking, and a final project that combines real peripherals into one complete system.

Progression

Almikatro Learning Path

Each course builds toward more capable engineering work. This brochure is for the STM32 Standard course, which prepares learners for practical microcontroller systems before advancing further.

01

Engineering Fundamentals

Build the engineering foundation needed for embedded systems, structured problem solving, and technical confidence.

02

IoT Systems Engineering (ESP32)

Extend into networking, cloud-connected devices, and connected embedded products.

03

Embedded Systems Engineering (STM32 Standard)

Learn peripherals, timing, debugging, communication, and complete embedded workflows through guided implementation. This brochure focuses on this course.

04

Embedded Systems Engineering (STM32 Advanced)

Continue into more advanced embedded topics after building a solid foundation through the Standard course.

05

Hardware Development (PCB Design)

Turn working prototypes into cleaner boards and product-ready electronic systems.

Embedded skills connect software decisions to real hardware behavior.

Industry

  • Machine monitoring and sensing
  • Motor control and actuation logic
  • Controller boards inside industrial products

Agriculture

  • Smart irrigation systems
  • Environmental measurement devices
  • Field-deployed monitoring electronics

Biotech / Lab

  • Measurement devices
  • Data acquisition workflows
  • Reliable sensor interfacing

Smart Devices & IoT

  • Connected sensors
  • Edge systems with real timing constraints
  • Products that must be debugged beyond tutorials

Many engineers get stuck between simple examples and real systems.

Where learners struggle

  • Understanding timing and interrupts
  • Interfacing real peripherals correctly
  • Debugging hardware-related problems
  • Organizing code beyond basic examples

What this course does

It helps you move from tutorial-style experiments to practical STM32 development, with a stronger engineering mindset and more confidence when the hardware does not behave as expected.

Structured learningPractical debuggingReal peripherals

Live practical implementation

The focus is on building and testing step by step, not passively watching theory.

Hardware-aware learning

You learn what the peripherals are doing electrically and logically, not only what the IDE shows.

Real debugging with ST-Link and UART

Debugging is treated as a skill to practice, not a last-minute rescue technique.

Engineering mindset beyond Arduino examples

Structured, practical, and professional from setup to final project, with the goal of helping you think and work like an embedded engineer.

Core technical skills

  • STM32 and ARM Cortex-M fundamentals
  • STM32CubeMX and STM32CubeIDE workflow
  • GPIO, interrupts, timers, and PWM
  • Clock configuration and timing basics
  • UART, I2C, and SPI communication
  • ADC and analog sensor interfacing
  • Practical debugging with ST-Link and serial tools
  • Building a complete embedded system project

Learn STM32 from the ground up

By the end, you should be able to configure peripherals, debug behavior, and combine modules into one working embedded system.

ST success story visual related to connected monitoring systems
ST Success storyConnected sensing

Real hardware

Practice is centered on actual boards, basic components, and observable behavior.

Minimal components

Keeping the hardware simple makes debugging clearer and learning faster.

Engineering-style exercises

Tasks are designed to build understanding, not only to produce a demonstration result.

Debugging is part of learning

ST-Link and UART are used throughout the course as practical tools, not optional extras.

Why this matters

You learn faster when you can measure, test, and fix what the hardware is actually doing. If you can debug simple hardware, you can debug more complex systems with confidence.

01

Introduction, Setup & First Project

STM32 mindset, tools setup, CubeMX, CubeIDE, first project.

02

GPIO & Digital Interfacing

GPIO modes, push buttons, LEDs, and practical exercises.

03

Interrupts, Timers & PWM

EXTI, debouncing, timer basics, PWM, and real-time behavior.

04

Clock System & Timing

Clock tree, PLL, prescalers, timing basics, and configuration.

05

UART Communication & Debugging

UART basics, serial messages, debugging, and PC interface.

06

I2C Communication

I2C fundamentals, addressing, sensors, and troubleshooting.

07

SPI Communication

SPI fundamentals, module interfacing, and SPI vs I2C.

08

ADC & Final Embedded Project

ADC basics, analog sensors, combined peripherals, final project.

Required hardware pack

  • STM32 Blue Pill boardMain practical board used during the course.
  • Breadboard + jumper wiresUsed for step-by-step interfacing and quick tests.
  • TTL / USB-to-UART converterUsed for serial communication and debugging.

Format

  • Live online on Zoom
  • Recorded sessions available
  • Practical implementation during sessions

Schedule

  • 8 sessions
  • 3 hours per session
  • 24 hours total duration
Live on Zoom8 sessions24 hours totalRecordings available

Positioning

This is the STM32 Standard track: practical, structured, and professional. It is designed for people who want a solid embedded foundation before moving to STM32 Advanced.

Electronics & embedded engineers

For engineers who want a more structured STM32 workflow and better debugging habits.

Mechatronics engineers

Useful for building control systems that connect sensors, actuators, and embedded logic.

Mechanical & automation engineers

Ideal for engineers working with machines, sensors, automation hardware, or laboratory systems.

Computer science students

For learners who want practical hardware exposure beyond software-only studies.

Students targeting robotics or IoT

A useful base before moving into connected systems, robotics projects, or product development.

After the course

You should be able to build STM32 applications from scratch, interface common peripherals confidently, and debug real hardware problems more systematically.

Others

15,000 DA
OR

Students

13,500 DA
InstallmentsAvailable
RegistrationReserve your seat and confirm your track
Hardware packRequired separately, around 6,000 DA
Start pointBegin with Wokwi, continue on real hardware