Embedded System Design – Microcontroller Programming, Real-Time Applications & IoT Integration

Introduction

This course provides a complete understanding of embedded systems, from architecture and programming to real-time interfacing and communication protocols. With a strong emphasis on microcontrollers, hardware-software integration, and project-based learning, students will gain hands-on experience to build reliable embedded solutions for automation, consumer electronics, automotive, medical, and IoT industries.

Modules and Content

Module 1: Introduction to Embedded Systems
  • Embedded vs general-purpose systems
  • System architecture: hardware & software blocks
  • Application areas and current trends
  • Microcontroller vs microprocessor
  • Architecture of 8051, AVR, or ARM (depending on hardware)
  • Embedded C programming basics
  • LED, switch, buzzer, and relay interfacing
  • Timers and counters
  • Interrupt handling
  • Sensors (temperature, light, IR)
  • ADC configuration and signal acquisition
  • Calibration and data processing
  • LCD (16×2/20×4), OLED interfacing
  • Keypad input handling
  • Basic menu systems and control panels
  • UART, SPI, and I2C fundamentals
  • Serial communication with PC and modules
  • Interfacing EEPROM, RTC, and GPS
  • IDEs and toolchains (Keil, Atmel Studio, STM32CubeIDE)
  • Code structuring and modular programming
  • Debugging and simulation tools
  • Concept of tasks, scheduling, and multitasking
  • Introduction to FreeRTOS
  • Task creation, synchronization, and semaphores
  • Introduction to Wi-Fi and Bluetooth modules (ESP8266, HC-05)
  • IoT applications and MQTT protocol basics
  • Cloud integration for data monitoring
  • Project planning and circuit design
  • Coding, integration, and testing
  • Report documentation and presentation

Scope & Advantages

Embedded systems are at the heart of automation, IoT, robotics, automotive, medical electronics, defense systems, and more. With the boom in smart devices and connected technologies, embedded engineers are in high demand. This course enables students to build a strong career in embedded development, firmware engineering, and electronics product design.

Reference

  • “Piping Handbook” by Mohinder L. Nayyar ,
  • “Process Piping: The Complete Guide to ASME B31.3” by Charles Becht IV,
  • “Pipe Stress Engineering” by Liang-Chuan Peng and Tsen-Loong Peng
  • “Piping Design Handbook” by John J. McKetta Jr.
  • “The Planning Guide to Piping Design” by Richard Beale and David R. Sherwood