Course Overview
This course provides solid grounding in embedded system design — from hardware fundamentals to microcontroller firmware, real-time systems, and IoT edge deployment. You'll build real applications using STM32, ESP32, and Arduino platforms, interface sensors and actuators, and implement communication protocols and real-time control architectures.
Learning Objectives
- Understand microcontroller architecture and embedded hardware concepts
- Develop firmware in C/C++ for real-time embedded systems
- Interface sensors, actuators, motors, and communication modules
- Use UART, SPI, I²C, CAN, MQTT, Modbus
- Deploy IoT and edge computing solutions (ESP32, Raspberry Pi, STM32)
- Design safe, scalable and low-power embedded systems
Module Breakdown
Module 1 — Embedded Fundamentals
Microcontroller architecture, GPIOs, memory, interrupts, timers, power systems.
Module 2 — C/C++ for Embedded
Bit-level programming, drivers, interrupts, debouncing, low-level hardware control.
Module 3 — Sensor & Actuator Interfaces
Analog/digital I/O, ADC, DAC, PWM, motors, relays, drivers, robotics control.
Module 4 — Communication Protocols
SPI, I²C, UART, CAN bus, MQTT, BLE/Wi-Fi, IoT data flows & security.
Module 5 — RTOS & Real-Time Scheduling
Tasks, queues, semaphores, timing, FreeRTOS, concurrency, performance tuning.
Module 6 — Capstone Project
Build a functional embedded system — firmware + hardware + connectivity + documentation.
Capstone Examples
ESP32 + sensors + cloud dashboards.
Motor control, sensors, navigation firmware.
CAN bus, Modbus, cloud telemetry, low power design.
Tools & Technologies
Who Should Enroll
Electronics and computer engineers, robotics students, IoT developers, and makers aspiring to build hardware-software systems and deploy intelligent devices in real-world environments.
Assessment & Certification
- Hands-on labs & circuit builds (30%)
- Programming assignments (20%)
- Capstone design & prototype (40%)
- Demo + engineering documentation (10%)
Tasrela