Course Overview

This course provides a comprehensive, industry-focused pathway into Embedded Linux development, covering programming fundamentals through advanced system-level and kernel programming. It begins with C and C++ programming to build strong problem-solving and software design skills, then progresses to Linux system programming, kernel internals, and device driver development.

Learners gain extensive hands-on experience using Raspberry Pi, working with real hardware peripherals such as GPIO, I2C, SPI, UART, interrupts, and timers. The course also covers Linux build systems, cross-compilation toolchains, and the Yocto Project, enabling participants to build and customize complete embedded Linux distributions.

Career Focus: Designed with a practical, interview-oriented approach, the course prepares learners for embedded Linux, device driver, system software, and IoT development roles, with strong emphasis on real-world projects and placement readiness.

What Makes This Course Unique

End-to-End Embedded Linux Coverage

From C & C++ fundamentals to Linux kernel, device drivers, and Yocto, the course covers the complete embedded Linux stack in a single, structured program.

Strong Hardware–Software Integration

Extensive Raspberry Pi–based labs ensure real interaction with hardware peripherals (GPIO, I2C, SPI, UART, interrupts, timers), not just simulations.

Kernel-Level Depth with Practical Focus

Learners don't just use Linux—they analyze kernel internals, write kernel modules, and build real device drivers.

Industry-Oriented, Project-Based Learning

Hands-on mini-projects and real-world use cases aligned with embedded product development and IoT applications.

Build System & Yocto Expertise

Practical training on cross-compilation, build automation, and Yocto Project, a skill set often missing in conventional courses.

Interview & Placement Readiness

Focus on coding standards, debugging techniques, kernel concepts, and interview patterns used in embedded Linux hiring.

Designed for Product & Certification Readiness

The curriculum aligns with embedded industry expectations, making learners ready for system software, device driver, and embedded Linux roles.

Course Highlights

Comprehensive Coverage: From foundational C & C++ programming to advanced Embedded Linux and Yocto Project development

Hands-On Learning: Industry-oriented practical training with real-world embedded system development scenarios

Linux Kernel Expertise: In-depth training in Linux system programming, kernel internals, and device driver development

Raspberry Pi Labs: Extensive practical experience with Raspberry Pi hardware for real-world embedded development

Peripheral Interfacing: Hands-on exposure to GPIO, I2C, SPI, UART, interrupts, timers, and device tree configuration

Build Systems Mastery: Comprehensive training in Linux build systems, cross-toolchains, and Yocto Project development

Professional Debugging: Real-time debugging techniques, performance optimization, and industry best practices

Project-Based Learning: Mini-projects and capstone assignments aligned with industry standards and requirements

Interview Preparation: Interview-oriented approach with dedicated placement preparation and technical interview training

Industry Standards: Designed to meet embedded industry and product-development standards with current technologies

Prerequisites

Before enrolling, you should have:

Basic understanding of computer fundamentals
Familiarity with programming logic (loops, conditions, functions)
Prior exposure to C programming is recommended (syntax, pointers, arrays)
Basic knowledge of data structures (arrays, structures) is helpful
Understanding of Linux fundamentals - command-line usage, file and directory operations
Awareness of computer architecture concepts - CPU, memory, registers, interrupts (introductory level)
Willingness to work with hands-on labs and hardware (Raspberry Pi)

Note: Don't worry if you're not strong in all areas - we'll review fundamentals in the initial modules!

Who Should Enroll?

Engineering Students

Seeking careers in Embedded Systems or Embedded Linux development

Final-Year & Graduate Students

From ECE, EEE, CSE, IT branches looking to enter embedded industry

Working Professionals

Transitioning into Embedded Linux, device drivers, or system software development

Software Developers

Aiming to move from application-level to system-level programming

Linux Kernel Enthusiasts

Engineers interested in Linux kernel, device drivers, and Yocto-based development

Interview Candidates

Preparing for embedded Linux and device driver technical interviews

IoT & Product Developers

Professionals targeting IoT and embedded product development roles

Course Outcomes

Upon successful completion, you will be able to:

Build a strong foundation in C and C++ programming, including OOP, STL, modular and optimized code design

Gain readiness for embedded systems, Linux system programming, and system software roles

Develop the ability to write efficient Linux system-level applications using C

Achieve deep understanding of Linux OS concepts and kernel internals

Analyze kernel behavior and prepare for kernel-level and system programming interviews

Design and develop Linux kernel modules and device drivers, with hands-on Raspberry Pi experience

Interface embedded peripherals using GPIO, I2C, SPI, UART, interrupts, timers, and platform devices

Build practical skills for embedded product development and IoT applications

Learn to build Linux kernels, root filesystems, and cross-compilation toolchains

Gain proficiency in Linux build systems and Yocto Project, including recipes, layers, customization, and debugging

Be placement-ready through project-based assessments and technical interview preparation

Detailed Course Curriculum

Comprehensive 10-module embedded systems program covering C/C++, Linux System Programming, Device Drivers, Raspberry Pi, Peripherals, Build Systems & Yocto

Module 1: C Programming

4 Weeks

Overview: Comprehensive C programming foundation for embedded systems.

Introduction to C Programming - History, features, compilation process
Keywords, identifiers, constants, variables, data types
Operators & Control Statements - arithmetic, relational, logical, bitwise
Loops: for, while, do-while, break, continue
Arrays & Strings - 1D, multi-dimensional arrays, string handling
Functions & Storage Classes - recursion, call by value/reference
Pointers & Dynamic Memory - malloc, calloc, realloc, free
Structures, Unions & Bit Fields for memory optimization
File Handling & Command Line Arguments
Advanced Concepts - preprocessor, macros, volatile, const, debugging
Mini Project: C-based application demonstrating all concepts

Tools: GCC Compiler, VS Code, GDB Debugger, Makefile

Module 2: C++ Programming

3 Weeks

Overview: Object-oriented programming for embedded applications.

Functions & Inline Functions - function overloading, default arguments
Constructors, Destructors & Encapsulation
Inheritance & Polymorphism - virtual functions, function overriding
Templates & Exception Handling - function/class templates
Standard Template Library (STL) - vectors, maps, iterators, algorithms
Lambda expressions and modern C++ features

Projects: Template-based calculator, STL-based data processing

Module 3: System Programming in Linux Using C

3 Weeks

Overview: Linux system programming fundamentals.

Linux Architecture - kernel vs user space, system calls vs library calls
File I/O System Calls - open(), close(), read(), write(), lseek(), fcntl()
Process Management - fork(), exec(), wait(), zombie/orphan processes
Signals & Timers - signal handlers, POSIX timers, alarm()
Inter-Process Communication - pipes, FIFOs, message queues, shared memory, semaphores
Multithreading & Synchronization - pthreads, mutexes, condition variables
Memory Management - virtual memory, mmap(), stack vs heap
Advanced File Systems & I/O - select(), poll(), epoll(), async I/O
Network Programming - socket programming, TCP/UDP, client-server
Debugging & Performance - gdb, valgrind, strace, secure coding

Projects: TCP client-server, multi-threaded applications, IPC demos

Module 4: Linux Internals and Interfacing

2 Weeks

Overview: Deep dive into Linux kernel architecture and internals.

Linux Architecture & Kernel Overview - monolithic vs microkernel
Process Management Internals - task_struct, context switching, CFS scheduler
Memory Management Internals - virtual memory, paging, slab allocators
Linux File System Internals - VFS, inodes, dentries, procfs, sysfs
Device Model & Driver Framework - device tree, platform devices
Kernel Interfaces - system calls, ioctl, netlink sockets
Interrupts, Timers & Concurrency - softirq, tasklets, workqueues
Boot Process & Debugging - bootloader, systemd, printk, ftrace

Hands-on: Analyze /proc, sysfs entries, kernel debugging techniques

Module 5: Linux Device Driver Programming

3 Weeks

Overview: Develop Linux kernel modules and device drivers.

Introduction to Device Drivers - types, kernel modules
Character Device Drivers - cdev, file_operations, major/minor numbers
Block Device Drivers - request_queue, bio structure
GPIO & Peripheral Interfacing - GPIO framework, I2C, SPI communication
Interrupts & Timers - request_irq(), tasklets, workqueues, hrtimers
Advanced Driver Concepts - device tree, platform drivers, PCI basics
User-Kernel Communication - ioctl(), sysfs, procfs, netlink
Debugging - printk, GDB, synchronization primitives

Projects: Character device driver, GPIO LED/switch driver, I2C sensor driver

Module 6: Device Driver Programming with Raspberry Pi

2 Weeks

Overview: Hands-on driver development on Raspberry Pi hardware.

Raspberry Pi Architecture & Linux Setup
GPIO Interfacing - LED blink, button input drivers
I2C and SPI Driver Interfacing - temperature sensors, EEPROM, ADC
Interrupts & Timers - interrupt-driven GPIO, periodic tasks
UART, Platform Devices & Device Tree - device tree overlays
Mini Projects - Multi-peripheral drivers, system monitoring

Hardware: Raspberry Pi 4 with LEDs, buttons, I2C/SPI sensors

Module 7: Digital System Peripherals and Interfacing

2 Weeks

Overview: Industry-standard peripheral interfacing protocols.

Introduction to Digital Peripherals - signal timing, voltage standards
GPIO Interfacing - debouncing, interrupt-driven GPIO
I2C Interfacing - master/slave, EEPROM, temperature sensors
CAN Bus Interfacing - CAN protocol, SocketCAN, transceivers
PCI and PCIe Interfaces - MMIO, enumeration, configuration
Network Interfaces - Ethernet, Wi-Fi, socket programming

Module 8: Embedded Device Driver with Raspberry Pi

3 Weeks

Overview: Advanced driver projects integrating multiple peripherals.

Raspberry Pi Kernel Modules - module parameters, sysfs
GPIO Character Drivers - LED blink, button handling
I2C/SPI Device Drivers - sensors, EEPROM, ADC integration
Interrupt & Timer Handling - top/bottom half, hrtimers
UART & Platform Devices - device tree overlays
Advanced Topics - power management, multi-peripheral drivers

Capstone: Complete multi-interface embedded driver project

Module 9: Linux Build System and Toolchains

1 Week

Overview: Master Linux build systems and cross-compilation.

Linux Build System - make, gcc, autoconf, automake
Cross Compilation & Toolchains - ARM, aarch64 toolchains
Build Systems & Automation - Makefiles, Kbuild, CMake
Embedded Image Building - root filesystem, Busybox, bootloader
Yocto and Buildroot overview

Projects: Cross-compile applications, build custom root filesystem

Module 10: Yocto Linux System

2 Weeks

Overview: Build custom embedded Linux distributions with Yocto.

Introduction to Yocto Project - Poky, BitBake, metadata, layers
Layers, Recipes, and Packages - custom layer creation, .bb files
Kernel and Bootloader Customization - kernel modules, U-Boot config
File System & Image Customization - minimal/core images, custom apps
Yocto SDK & Development Workflow - SDK generation, debugging
Advanced Yocto - layer priority, build optimization, CI/CD

Final Project: Custom Yocto Linux distribution for Raspberry Pi with integrated drivers

Frequently Asked Questions

Do I need prior programming experience?

Basic understanding of C programming is recommended but not mandatory. We cover fundamentals in the initial modules. If you're completely new to programming, we suggest taking a basic C programming course first.

What hardware/software will I need?

Development boards will be provided as part of the course kit (shipped to your address). You'll need a laptop with Windows/Linux OS. All software tools we use are open-source and free. Detailed setup instructions will be provided.

Will I get hands-on experience?

Absolutely! The course is 70% practical with hardware projects throughout. You'll work on 10+ hands-on projects including a final capstone project. Each concept is immediately applied to real hardware.

Is this course suitable for working professionals?

Yes! We offer flexible evening and weekend batches specifically for working professionals. All sessions are recorded and available within 24 hours for those who miss live classes.

What job roles can I apply for after this course?

Embedded Software Engineer, Firmware Developer, IoT Engineer, Hardware Design Engineer, Embedded Systems Architect, Automotive Embedded Engineer, and more. Our graduates work at companies like Intel, Qualcomm, Bosch, TI, and many startups.

Do you provide placement assistance?

Yes! We provide comprehensive placement support including resume building, mock interviews, technical interview preparation, and direct connections with 500+ hiring partners. 95% of our students get placed within 3 months.

How long is course access valid?

You get lifetime access to all course materials, recorded sessions, project resources, and future updates. You can revisit any topic anytime.

Can I switch batch timings?

Yes, you can switch to another ongoing batch with prior intimation to the support team. We understand schedules change!

What if I miss a class?

All sessions are recorded in HD quality and made available within 24 hours. You can watch at your convenience. You can also join doubt-clearing sessions to catch up.

Is there a certificate?

Yes, you'll receive a verified certificate upon successful completion of the course and final project. The certificate is recognized by industry and can be shared on LinkedIn.