Embedded Systems (With Internship Certificate , Mentor-Led Technical Skill Development)

The Embedded Systems – Beginner to Intermediate course is a structured, hands-on training program designed to build strong foundational and practical skills in embedded hardware, microcontrollers, Arduino programming, and real-time system design.

This course is ideal for electronics students, electrical engineers, embedded beginners, IoT aspirants, and hardware enthusiasts who want to build careers in embedded systems engineering, firmware development, automation, robotics, and IoT solutions.

The course begins with a clear understanding of what embedded systems are and how they differ from general-purpose computers, using real-world examples such as car dashboards, elevators, home appliances, and industrial controllers. Learners explore the core components of embedded systems, including microcontrollers, sensors, actuators, and memory, along with essential characteristics such as real-time operation, resource constraints, and reactive behavior.

As learners progress, they gain in-depth knowledge of embedded system design principles and processor architectures, covering performance, power, cost, and size trade-offs, real-time constraints, and comparisons between ASICs and FPGAs. The course explains Von Neumann and Harvard architectures, pipeline execution, and the fundamentals of hardware–software co-design.

The practical core of the program focuses on Arduino boards (UNO, Mega, Zero) and popular microcontrollers (ATmega328, ATmega32, SAM D21). Learners understand memory organization (Flash, SRAM, EEPROM), pin configurations, ADC/DAC, and register usage. Special emphasis is placed on register-level programming, enabling learners to write low-level, efficient code beyond basic Arduino functions.

Hands-on simulation using Tinkercad and Proteus allows learners to design, test, and debug circuits safely before real hardware deployment. The course includes extensive practice in switch interfacing, LED and LCD control, serial communication, seven-segment displays, multiplexing techniques, and display optimization.

Advanced modules cover bitwise operations, LED pattern generation, LCD interfacing (4-bit and 8-bit modes), custom characters, scrolling displays, and bidirectional serial communication. Learners also build automation projects using sensors such as LDRs and temperature sensors, applying ADC concepts, calibration techniques, and real-world logic design.

Throughout the course, learners develop the ability to troubleshoot hardware and software issues, manage delays, reduce flicker in displays, implement reset logic, and design robust embedded applications.

The course follows a Self-Paced & Mentor-Led learning model, ensuring flexibility with expert guidance. Each module includes:

• High-quality video lectures with subtitles

• Detailed lecture notes

• 10 quiz questions per lecture to reinforce learning and improve engagement

Upon completion, learners receive:

• Course Completion Certificate

• Internship Completion Certificate

This program prepares learners for roles such as Embedded Systems Engineer, Firmware Engineer, Arduino Developer, IoT Engineer, Electronics Design Engineer, and entry-level roles in automation and hardware product development.

What You Will Learn

• Fundamentals and real-world applications of embedded systems

• Embedded system design and processor architectures

• Arduino boards, microcontrollers, and memory organization

• Register-level programming and low-level IO control

• Circuit simulation using Proteus and Tinkercad

• Serial communication and LCD interfacing

• Seven-segment displays, multiplexing, and LED pattern design

• Sensor-based automation projects (LDR, temperature sensors)

• Debugging, calibration, and system optimization

Learning Outcomes

By the end of this course, learners will be able to:

• Explain embedded system concepts and applications

• Design and program Arduino-based embedded solutions

• Apply register-level programming for efficient control

• Interface displays, sensors, and input/output devices

• Simulate, test, and troubleshoot embedded circuits

• Build real-world embedded automation projects