Advanced Embedded Object-Oriented Programming in C++

Mastering C++ Object-Oriented Programming for Microcontroller-Based Firmware Development

What you'll learn
Master advanced OOP concepts essential for high-performance embedded firmware.
Develop modular, scalable, and reusable driver architectures using C++.
Understand and apply RAII, encapsulation, inheritance, and operator overloading for firmware optimization.
Implement safe, efficient memory management suitable for resource-constrained systems.
Gain professional expertise to confidently handle complex embedded firmware projects at top-tier companies.

Requirements
NUCLEO-F411 Development Board

Description
In today's competitive embedded industry, mastering Object-Oriented Programming (OOP) in C++ isn't just an advantage, it's essential for success at leading tech companies such as Google, Apple, Garmin, Tesla, and Bosch.This advanced course empowers embedded engineers with the skills needed to develop robust, maintainable, and highly performant firmware tailored for microcontrollers.Throughout this expertly structured course, you'll move beyond procedural C and deeply integrate advanced C++ Object-Oriented principles into embedded systems development.Learn how industry leaders effectively implement OOP to achieve modular, maintainable, and highly performant firmware, even within strict resource constraints.Course Highlights:Apply everything you've learned in a comprehensive capstone project.Develop a real-world embedded system incorporating advanced peripherals such as DMA, RTC, ISR , PWR and multiple environmental sensors (pressure, humidity, temperature, air quality, and light intensity).Build and deploy firmware using robust, scalable, and optimized object-oriented designs.Practical OOP Implementation: Create driver classes for GPIO, UART, SPI, I2C, and Timers, applying advanced encapsulation and RAII techniques to ensure safety and efficiency.Performance-Focused OOP: Learn optimization strategies to leverage OOP features without incurring unnecessary overhead in memory usage, execution speed, and code complexity.Advanced C++ Techniques: Master operator overloading for intuitive hardware interactions, implement safe memory management strategies (avoiding dynamic memory), and employ RAII for robust peripheral control.Inheritance and Polymorphism: Understand when and how to apply inheritance, explore static vs. dynamic polymorphism, and effectively manage virtual function overhead using CRTP (Curiously Recurring Template Pattern) and static polymorphism techniques.Practical Real-World Examples: Work through professional-grade case studies including:- Optimizing sensor drivers for efficient resource use- Creating a modular firmware structure for environmental data logging- Managing interrupts and timers using OOP principlesLearning Outcomes:By completing this course, you will:Master advanced OOP concepts essential for high-performance embedded firmware.Develop modular, scalable, and reusable driver architectures using C++.Understand and apply RAII, encapsulation, inheritance, and operator overloading for firmware optimization.Implement safe, efficient memory management suitable for resource-constrained systems.Gain professional expertise to confidently handle complex embedded firmware projects at top-tier companies.Whether you're transitioning from embedded C or enhancing your existing embedded C++ knowledge, this course positions you as a top candidate for advanced embedded software roles at industry-leading organizations like Google, Apple, Tesla, and Bosch.Enroll now and elevate your embedded development skills to a professional level, driving innovation and excellence in firmware engineering.

Who this course is for
Embedded software developers experienced in C seeking to advance their careers by mastering object-oriented C++ for high-performance firmware.
Intermediate embedded engineers aiming to deepen their expertise in advanced C++ techniques for developing robust, scalable microcontroller systems.
Professional firmware engineers preparing for senior roles at industry-leading tech companies requiring optimized object-oriented embedded solutions.