C++ Mastery

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Explore the fundamental concepts of Object-Oriented Programming (OOP), a programming paradigm built on the idea of objects and classes, which are the main focus of this section.

Constructors and destructors are fundamental concepts in Object-Oriented Programming (OOP). They play a crucial role and in this section you will learn why are they so important and how to use them.

Encapsulation is one of the fundamental principles of object-oriented programming (OOP) that facilitates the creation of modular and maintainable code. Here, you will explore the significance of Data Hiding, Access Control, Mutator, and Accessor Methods, elucidating their pivotal roles in code maintenance and modularity.

In this section you will learn about fundamental mechanism of object-oriented programming that enables code reuse and promotes the creation of hierarchical relationships among classes.

Polymorphism is a foundational concept in OOP that enables the creation of flexible and extensible code structures. You will learn about virtual function, abstract classes and operator overloading and their pivotal roles in promoting code flexibility and scalability.

This section introduces templates in programming, guiding you through creating your first template and using the template function.

In this section you will learn role of templates in reducing code duplication, handling multiple argument types, using typename parameters as return types, and distinguishing between implicit and explicit type specification.

This section introduces class templates in C++ and their use in creating flexible data structures. It covers templates classes related topics.

This section introduces template specialization in C++, explaining how it allows for customized behavior of templates for specific types. It covers the usage of both full and partial template specialization and discusses template constraints to enforce specific conditions on template parameters.

Understand the fundamentals of pointers, how they interact with memory, and why dynamic allocation is crucial. Explore the challenges of manual memory management and how smart pointers solve common issues like memory leaks and dangling pointers.

Learn how std::unique_ptr manages exclusive ownership and automates memory deallocation. Explore creation, movement, and best practices for passing unique pointers, along with key methods and real-world applications for safer, more efficient code.

Explore shared pointers, investigating their functionality, benefits, real-world applications in programming and what sets unique pointers apart.

Explore weak pointers, comprehending their nature, creating and utilizing them effectively, resolving circular references through weak pointers, and examining key functions associated with weak pointers.

Learn how to use custom deleters for smart pointers, real-world smart pointer applications, performance considerations, and a detailed comparison of shared, unique, and weak pointers.