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Master Embedded Systems

From fundamentals with Arduino to advanced STM32 & RTOS development for industry-ready embedded firmware engineers

Start Your Embedded Journey

Choose the right program based on your current skill level and career goals

Fundamentals Program

Embedded C, Microcontroller Basics & Hardware Interfacing using Arduino

Arduino Embedded C Sensors
Explore Program

Advanced Program

STM32 Microcontrollers, Embedded C & RTOS for industry-grade firmware

STM32 RTOS FreeRTOS
Explore Program
Program 1

🟦 Embedded Systems – Fundamentals Program

Embedded C, Microcontroller Basics & Hardware Interfacing using Arduino

🎯 Program Objective

This course builds strong embedded system fundamentals using Arduino as a learning platform while teaching core embedded hardware concepts, Embedded C programming, and sensor interfacing techniques that are applicable across all microcontrollers.

The focus is on understanding how embedded systems work, not just writing code.

Perfect for: Beginners & Students
Duration: 8-10 Weeks
Prerequisite: Basic C Programming

Who Is This Course For?

Electronics & ECE students
Beginners entering embedded systems
Hobbyists transitioning to professional embedded roles
Students planning to move into advanced MCU / RTOS courses

⏱ Course Format

Weekend / Online

8–10 weeks

Flexible learning schedule

Full-Time

4–5 weeks

Intensive classroom training

Course Curriculum

Concepts
  • What is an embedded system?
  • MCU vs MPU vs SoC
  • Real-world embedded products
  • Embedded system block diagram
  • Power supply basics (linear vs SMPS)
Learning Outcomes

✔ Understand embedded system architecture

✔ Identify components on a development board

Concepts
  • Embedded C vs normal C
  • Memory layout (Flash, RAM, EEPROM)
  • Bitwise operations
  • Volatile keyword
  • Pointers & registers
  • Timing-aware coding
Learning Outcomes

✔ Write efficient Embedded C code

✔ Understand memory-mapped I/O

Concepts
  • Arduino board architecture
  • Microcontroller pin functions
  • Arduino IDE and toolchain
  • Clock, reset, and boot process
Learning Outcomes

✔ Configure and program Arduino boards

✔ Understand how code runs on MCU

Concepts
  • GPIO input/output
  • Pull-up and pull-down resistors
  • Software vs hardware delays
  • Timers and counters
  • External interrupts
Hands-On Labs

✔ LED and button control

✔ Interrupt-based event detection

Concepts
  • ADC fundamentals
  • Resolution and sampling
  • Noise and filtering
  • Sensor calibration
Sensors Covered
Temperature sensors (LM35 / DHT) Light sensors (LDR) Potentiometers IR sensors
Labs

✔ Digital thermometer

✔ Light-based automation

Concepts
  • UART communication
  • SPI and I2C fundamentals
  • Master-slave protocols
  • Debugging serial data
Labs

✔ Serial command interface

✔ I2C-based sensor reading

Concepts
  • Driving relays and loads
  • Motor interfacing (DC, Servo)
  • Power considerations
  • Protection circuits (diodes, opto-isolators)
Labs

✔ Motor speed control using PWM

✔ Relay-based control system

Sensor Categories
  • Environmental sensors
  • Proximity & motion sensors
  • Position & speed sensors
  • Gas & pressure sensors
Actuators
  • Motors
  • Buzzers
  • Displays (LCD / OLED)
Labs

✔ Multi-sensor monitoring system

✔ Display-based data visualization

Concepts
  • Modular firmware design
  • State machines
  • Error handling
  • Debugging techniques
Labs

✔ Menu-driven embedded application

Projects & Labs

🛠 Mini Projects (Medium-Level)
Temperature-controlled fan
Sensor-based home automation
Serial-controlled embedded device
Multi-sensor data logger
🎓 Final Project (Mandatory)

Choose ONE:

Smart environmental monitoring system
Basic automation controller
Sensor-based safety system

Tools & Hardware Used

Arduino (UNO / Nano)
Embedded C
Sensors

Temperature, IR, LDR, etc.

Motors & Relays
Multimeter

Basic tools

Skills You Will Gain

Embedded system fundamentals
Embedded C programming
Hardware & sensor interfacing
MCU peripheral understanding
Debugging real hardware issues

What's Next After This Course?

Advanced Embedded Systems

STM32 / MSP430 + RTOS

Embedded Systems + IoT

Connected systems development

Embedded Systems + Robotics

Robotic system integration

Why This Course Is Important

This course ensures students understand embedded systems from the hardware up, making them ready for industry-grade microcontrollers and real-world applications.

Enroll Now
Program 2

🟦 Advanced Embedded Systems – Industry Program

STM32 Microcontrollers, Embedded C & RTOS

🎯 Program Objective

This course trains engineers to design production-quality embedded firmware using STM32 microcontrollers, focusing on datasheet-driven development, register-level understanding, real-time operating systems, and professional debugging techniques.

The emphasis is on how embedded systems are built in industry, not hobby-level development.

For: Intermediate to Advanced
Duration: 12-14 Weeks
Career: Embedded Firmware Engineer

Who Is This Course For?

Students who completed Embedded Systems – Fundamentals
Electronics & ECE graduates
Engineers targeting embedded firmware roles
Professionals moving from Arduino to industry-grade MCUs
Developers preparing for RTOS-based embedded systems

⏱ Course Format

Weekend / Online

12–14 weeks

Comprehensive online learning

Full-Time Immersive

3 months

Intensive, job-oriented training

Advanced Curriculum

Topics
  • STM32 product families overview
  • ARM Cortex-M architecture basics
  • Memory map (Flash, SRAM, peripherals)
  • Clock tree & reset architecture
  • Power modes and low-power states
Learning Outcomes

✔ Read and understand STM32 datasheets & reference manuals

✔ Understand how firmware interacts with hardware

Topics
  • STM32CubeIDE setup
  • Toolchain & linker overview
  • Startup code & vector table
  • HAL vs Register-level programming
  • CMSIS fundamentals
Labs

✔ Blinky using HAL

✔ GPIO control using registers

Topics
  • GPIO modes & alternate functions
  • External interrupts (EXTI)
  • Timers, PWM generation
  • Input capture & output compare
Labs

✔ PWM-based motor control

✔ Timer-driven event scheduler

Topics
  • UART (polling, interrupt, DMA)
  • SPI (master/slave)
  • I2C protocol & timing
  • Error handling & debugging
Labs

✔ Sensor interface using I2C

✔ UART-based command console

Topics
  • ADC architecture & sampling
  • DMA concepts
  • Interrupt vs DMA trade-offs
  • Latency and throughput optimization
Labs

✔ ADC + DMA sensor acquisition

✔ High-speed data logging

Topics
  • SWD/JTAG debugging
  • Breakpoints, watchpoints
  • Fault handlers (HardFault, BusFault)
  • Debugging timing & race conditions
Labs

✔ Debug a faulty firmware scenario

✔ Analyze stack overflow & crashes

Topics
  • RTOS concepts & scheduling
  • Tasks, priorities & context switching
  • Queues, semaphores, mutexes
  • ISRs vs tasks
  • Deadlocks & race conditions
Labs

✔ Multi-tasking application

✔ Sensor task + communication task

Topics
  • RTOS-based firmware architecture
  • State machines with RTOS
  • Error handling & recovery
  • Watchdog timers
Labs

✔ RTOS-based control system

✔ Watchdog-enabled application

Topics
  • Sleep & stop modes
  • Power profiling
  • Battery-powered design concepts
  • Brown-out & fault recovery
Labs

✔ Low-power sensor node firmware

Topics
  • Hardware/software co-design
  • Firmware versioning
  • Modular driver architecture
  • Production readiness considerations
Labs

✔ Integrate multiple peripherals into one system

Industry-Oriented Projects

🛠 Medium → Complex Projects
RTOS-based sensor data logger
Motor control system using STM32
Communication gateway (UART + SPI + I2C)
Low-power embedded node
Multi-tasking embedded application with FreeRTOS
🎓 Capstone Project (Mandatory)

Choose ONE:

🚀 Option 1: Industrial Controller
  • STM32-based control system
  • Multiple sensors & actuators
  • RTOS-based architecture
  • Fault detection & recovery
🚀 Option 2: Embedded Data Acquisition System
  • High-speed sensor sampling
  • DMA + RTOS
  • Data logging & communication
🚀 Option 3: Embedded Product Firmware
  • Modular firmware architecture
  • Low-power operation
  • Robust error handling
  • Production-style code structure

Tools & Technologies Used

STM32 Microcontrollers
STM32CubeIDE
Embedded C
FreeRTOS
SWD/JTAG Debugging
Datasheets & Manuals

Skills You Will Gain

STM32 firmware development
Register-level understanding
RTOS-based system design
Embedded debugging expertise
Industry-ready embedded architecture skills

Career Outcomes

Embedded Firmware Engineer
Embedded Systems Engineer
RTOS Developer
Product Firmware Engineer

Why This Course Is Industry-Grade

Datasheet-driven development
Focus on debugging & reliability
RTOS-based real-world systems
Strong transition from fundamentals to production
Start Advanced Program Talk to Expert

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