EMBEDDED SYSTEMS ENGINEERING

Real Skills.
Real Systems.
Real Engineering.

Learn embedded systems the way firmware engineers work: understand the architecture, configure the registers, write the driver, flash the target, measure the signal and debug the result.

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STM32ARM CORTEX-MAURIXCANSPIUART

EMBEDDED C• FIRMWARE DEVELOPMENT• DRIVER DEVELOPMENT• BARE-METAL PROGRAMMING• MICROCONTROLLERS• REAL-TIME SYSTEMS•

FROM THEORY TO HARDWARE

Engineering starts where theory meets hardware.

Move from theory to real hardware with a workflow built around reference manuals, register-level code, flashing, measurement and debugging.

SYSTEM ARCHITECTURE

Understand how CPU, memory, buses, clocks and peripherals connect.

FIRMWARE DEVELOPMENT

Write low-level code and drivers with explicit hardware behavior.

HARDWARE INTEGRATION

Connect sensors and devices using UART, SPI, I²C and CAN.

REAL-TIME SYSTEMS

Work with interrupts, timers, scheduling and deterministic execution.

PRACTICAL EMBEDDED ENGINEERING Understand → Implement → Measure → Debug

LEARNING ROADMAP

From fundamentals to firmware.

View full roadmap →

Embedded Foundations

How computers, microcontrollers, memory, clocks and peripherals fit together.

→ 01

Digital Electronics

Logic, signals, voltage levels, timing and digital building blocks.

→ 02

C Programming

Pointers, arrays, structures, memory, bit operations and debugging.

→ 03

Embedded C

volatile, const, registers, linker concepts, startup and low-level code.

→ 04

Microcontrollers

MCU architecture, clock trees, memory maps and peripheral blocks.

→ 05

ARM Cortex-M

CPU, exceptions, NVIC, SysTick, stack, registers and debugging.

→ 06

Memory & Registers

Addressing, memory-mapped I/O, linker scripts and register-level access.

→ 07

GPIO

Pin multiplexing, modes, pull-ups, outputs, inputs and hardware testing.

→ 08

Interrupts & NVIC

Interrupt flow, priorities, ISRs, latency and safe interrupt design.

→ 09

Timers

Prescalers, counters, capture/compare, periodic interrupts and timing.

→ 10

PWM

Duty cycle, frequency, timers, motor control and waveform verification.

→ 11

UART

Baud rate, frame format, registers, TX/RX and debugging with analyzers.

→ 12

SPI

Clocking, CPOL/CPHA, chip select, registers and driver implementation.

→ 13

I²C

Addressing, ACK/NACK, open-drain signaling, timing and bus recovery.

→ 14

CAN

Frames, arbitration, bit timing, filters, errors and automotive networks.

→ 15

ADC / EVADC

Sampling, resolution, conversion timing, channels and calibration.

→ 16

DMA

Peripheral transfers, descriptors, interrupts and CPU offloading.

→ 17

RTOS

Tasks, scheduling, synchronization, queues, timing and real-time design.

→ 18

Automotive Embedded

ECUs, networks, diagnostics, HIL, calibration and production constraints.

→ 19

AUTOSAR & Diagnostics

Software architecture, MCAL concepts, UDS, DTCs and integration.

→ 20

Advanced Firmware

Bootloaders, BMS, safety, performance, debugging and production systems.

→

THE METHOD

Theory is only the beginning.

Understand

Start with the concept and architecture.

Implement

Translate the concept into register-level C.

Measure

Verify signals with real hardware and tools.

Debug

Find the gap between expected and actual behavior.

HANDS-ON ENGINEERING

Build. Flash. Measure. Debug.

All projects →

STM32F103IN PROGRESS

STM32
BARE METAL

STM32 Bare-Metal Driver Library

C • Cortex-M3View project →

AUTOMOTIVE

CAN

CAN Communication

Understand frames, arbitration, bit timing, filters and practical debugging.

CAN • ECUExplore →

BMS

Battery Management Systems

Explore BMS architecture, sensing, communication and embedded control concepts.

AutomotiveExplore →

CODE LAB

Don't just read the driver.
Understand every register.

Every code example will connect the implementation to the hardware: register → bit → behavior → measurement.

Explore Code Library →

spi_driver.c

void SPI_Init(void)
{
    // Enable SPI peripheral clock
    RCC->APB2ENR |= RCC_APB2ENR_SPI1EN;

    // Configure master mode + clock
    SPI1->CR1 |= SPI_CR1_MSTR;
    SPI1->CR1 |= SPI_CR1_BR_0;

    // Enable SPI
    SPI1->CR1 |= SPI_CR1_SPE;
}

REFERENCE CENTER

Everything within reach.

01STM32Architecture • Peripherals • Registers↗ 02AURIX / TC3xxArchitecture • QSPI • EVADC • Timers↗ 03ARM Cortex-MCPU • NVIC • Exceptions • Debug↗ 04CommunicationCAN • SPI • I²C • UART↗

THE NEXT STEP

Turn embedded theory into working firmware.

Start the Roadmap →

Real Skills.Real Systems.Real Engineering.