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Programming · Modern C++ application development

C++ Programming

Build a strong C++ foundation through modern syntax, object-oriented programming, STL containers and algorithms, templates, memory management, file handling, project structure, and application design.

Move from small console programs to modular applications that are easier to test, build, debug, and extend.

Beginner to Advanced 10 Weeks 10 Modules Online / Classroom Inventory Management System
Explore curriculum → View capstone project

Course overview

C++ is a general-purpose programming language used for application development, systems software, games, embedded work, performance-sensitive tools, and many other technical domains.

This course begins with syntax, functions, control flow, and object-oriented design. It then introduces inheritance, polymorphism, templates, STL containers, algorithms, iterators, lambdas, exceptions, files, and modern resource-management practices.

The final project connects those topics through an inventory-management application with clear data models, operations, persistence-ready structure, validation, and documentation.

Modern C++ is not only about pointers and manual memory. Good C++ design also uses clear ownership, RAII, standard-library components, appropriate abstractions, testing, and a build process that another developer can reproduce.

Prerequisites

Basic programming logic is helpful but not mandatory. Learners should be comfortable reading instructions, using a code editor, and running commands.

  • Basic computer and file-management knowledge.
  • Willingness to practice syntax through small programs.
  • Basic logic involving conditions and repetition is helpful.
  • Basic terminal knowledge is recommended.
  • Prior C experience is useful but not required.
  • Mathematics beyond basic arithmetic is not required for the core course.

Readiness activity

Write a small program that reads product names and quantities, calculates a total count, and prints a summary. Then identify one invalid input and explain how the program should respond.

If you want a simpler first programming language, review the C Programming course before beginning this course.

Who can explore this course?

Programming beginners

Build a strong language foundation

Learn syntax, functions, classes, containers, debugging, and structured problem solving.

C developers

Move toward C++ design

Explore classes, RAII, templates, STL components, and higher-level application structure.

Application builders

Organize larger programs

Separate responsibilities into models, services, and reusable components.

Systems interests

Understand resource ownership

Explore memory, lifetimes, performance, build systems, and debugging concepts.

What you will learn

  • Write and compile C++ programs.
  • Use variables, types, operators, control flow, and functions.
  • Design classes with encapsulation and clear responsibilities.
  • Apply inheritance and runtime polymorphism carefully.
  • Use references, pointers, const correctness, and ownership concepts.
  • Work with STL containers, iterators, algorithms, and lambdas.
  • Write function and class templates.
  • Handle exceptions and validate input safely.
  • Read and write structured files.
  • Use smart pointers and RAII-oriented resource management.
  • Organize multi-file projects with CMake concepts.
  • Build, debug, test, document, and present a C++ application.

Curriculum outline

The ten-module outline progresses from fundamentals to a modular application. The exact language standard and compiler version should be confirmed before delivery.

01

C++ fundamentals and development setup

Learn how C++ source code becomes an executable and build a reliable starting workflow.

  • Source files, headers, compilation, and linking.
  • Compiler flags and readable compiler output.
  • Variables, constants, literals, and primitive types.
  • Input/output with streams.
  • Namespaces and basic standard-library usage.
  • Comments, naming, formatting, and code organization.

Practice: Create a console program that reads product information, validates basic values, and prints a formatted summary.

02

Control flow, functions, and program structure

Break problems into understandable operations and control how programs make decisions.

  • Conditional statements and nested decisions.
  • For, while, and range-based loops.
  • Function declarations, definitions, and return values.
  • Parameters, references, const parameters, and scope.
  • Function overloading and default arguments.
  • Recursion and when iteration may be clearer.
  • Header files and separate compilation concepts.

Practice: Build menu-driven functions for adding, finding, updating, and displaying inventory items.

03

Classes, objects, and encapsulation

Represent application concepts as objects with clear state, behavior, and access boundaries.

  • Classes, objects, data members, and member functions.
  • Public, private, and protected access.
  • Constructors, destructors, and initialization.
  • Member initializer lists.
  • Const member functions.
  • Getters, setters, and validation boundaries.
  • Composition and single-responsibility design.

Practice: Design Product and Inventory classes that protect invalid state and expose focused operations.

04

Inheritance and polymorphism

Explore shared interfaces and dynamic behavior, while learning when composition may be simpler.

  • Base and derived classes.
  • Public inheritance and interface design.
  • Virtual functions and overriding.
  • Abstract classes and pure virtual functions.
  • Virtual destructors and safe polymorphic cleanup.
  • Runtime polymorphism and dependency substitution.
  • Inheritance trade-offs and composition alternatives.

Practice: Model different product categories or notification types behind a common interface, then explain why the abstraction is useful.

05

Operator overloading, references, and ownership

Understand object behavior and resource ownership without creating confusing or unsafe interfaces.

  • Operator overloading for meaningful value types.
  • Friend functions and controlled access.
  • Lvalue and rvalue reference concepts.
  • Copy construction and copy assignment.
  • Move construction and move assignment concepts.
  • Rule of zero, rule of three, and rule of five.
  • Ownership documentation and lifetime decisions.

Practice: Create a small value type with safe copying and meaningful comparison behavior.

06

STL containers and data structures

Select standard containers according to access, ordering, uniqueness, and performance needs.

  • Vector, array, list, and deque use cases.
  • Stack and queue adaptors.
  • Set and map ordered containers.
  • Unordered sets and maps.
  • Key choice, uniqueness, and lookup behavior.
  • Iterator invalidation awareness.
  • Choosing a container based on operations, not habit.

Practice: Store inventory items in a suitable container and justify the choice for search, update, display, and deletion operations.

07

STL algorithms, iterators, and lambdas

Replace repetitive loops with expressive standard algorithms where that improves clarity.

  • Iterator ranges and algorithm inputs.
  • Sorting and custom comparison.
  • Searching, counting, copying, and transforming.
  • Predicates and lambda expressions.
  • Accumulate and basic numeric processing.
  • Erase-remove patterns and filtering.
  • Algorithm readability and complexity awareness.

Practice: Add inventory filtering, sorting by price, searching by identifier, and low-stock reports using STL algorithms and lambdas.

08

Templates, exceptions, and robust errors

Build reusable generic components and handle failures without hiding important information.

  • Function templates and type parameters.
  • Class templates and generic containers.
  • Template deduction concepts.
  • try, catch, throw, and exception types.
  • Input validation and domain errors.
  • Exception safety and cleanup.
  • When to return an error instead of throwing.

Practice: Create a validated inventory operation that reports unknown identifiers, invalid quantities, and duplicate product codes clearly.

09

Files, modern C++, and resource management

Add persistence-ready behavior and use modern techniques to make ownership and cleanup safer.

  • File streams and formatted text files.
  • Serialization and deserialization concepts.
  • Parsing input and handling malformed records.
  • auto, range-based loops, and nullptr.
  • Smart pointers and ownership semantics.
  • RAII and automatic resource cleanup.
  • Optional, variant, filesystem, and string-view concepts.

Practice: Save inventory records to a text file, reload them at startup, and report malformed rows without silently losing data.

10

Build systems, testing, and project delivery

Organize a multi-file project and prepare it for repeatable compilation, testing, debugging, and portfolio presentation.

  • Project folders, headers, source files, and libraries.
  • CMakeLists.txt and cross-platform build concepts.
  • Out-of-source builds and build directories.
  • Compiler warnings and debugging workflow.
  • Unit-test concepts and testable design.
  • Git commits, README files, and usage instructions.
  • Final architecture review and demonstration.

Practice: Build the capstone with CMake, add a small test set, document build commands, and demonstrate the application from a clean directory.

Practical exercise ideas

These smaller projects help you practice individual C++ concepts before combining them in the capstone.

Fundamentals

Console billing calculator

Read line items, calculate totals, validate quantities, and print a formatted receipt.

Review: functions, loops, types, input, and validation.

OOP

Library lending model

Create books, members, loans, and return operations with protected state and clear responsibilities.

Review: classes, composition, constructors, and invariants.

STL

Inventory search report

Store products and generate sorted, filtered, low-stock, and category-based reports.

Review: containers, iterators, algorithms, and lambdas.

Templates

Generic statistics utility

Create reusable functions for minimum, maximum, average, and formatted collection output.

Review: templates, constraints, and numeric assumptions.

Files

Persistent task list

Save tasks to a file, reload them, handle malformed entries, and report errors clearly.

Review: streams, parsing, exceptions, and recovery.

Build system

Multi-file CMake project

Separate a program into headers, source files, libraries, and a repeatable build directory.

Review: compilation, linking, CMake, and documentation.

Suggested ten-week learning plan

This is an illustrative learning sequence. Confirm the official timetable, session count, compiler version, and project requirements before publishing it as a schedule.

Weekly focus and practical milestones
Week Focus Suggested milestone
01 Syntax and setup Compile small programs and document the toolchain.
02 Control flow and functions Build menu-driven operations with validation.
03 Classes and encapsulation Design product and inventory data models.
04 Inheritance and polymorphism Implement a focused interface and compare composition.
05 Ownership and special members Review copying, moving, lifetime, and ownership.
06 STL containers Choose containers for inventory operations.
07 Algorithms and lambdas Add sorting, searching, filtering, and reports.
08 Templates and exceptions Add reusable utilities and clear failure handling.
09 Files and modern C++ Add persistence and review resource management.
10 CMake, testing, and capstone Build, test, document, and present the application.
Bring the language together

Capstone project

Inventory Management System

Create a console-based inventory application for managing products, quantities, categories, prices, and stock changes. Use the project to demonstrate object-oriented design, STL usage, input validation, file persistence, and modular organization.

Core project requirements

  • Add products with unique identifiers.
  • Display products in a readable table or report.
  • Search by identifier, name, or category.
  • Update product quantities and prices.
  • Record stock additions and removals.
  • Report low-stock products.
  • Reject invalid quantities and duplicate identifiers.
  • Save and reload data from a file.
  • Separate data models, services, and user interaction.
  • Document build, run, test, and usage instructions.

Quality requirements

  • Use meaningful names and consistent formatting.
  • Keep validation close to the relevant domain operation.
  • Use standard-library containers where appropriate.
  • Explain ownership and resource-lifetime decisions.
  • Handle missing files and malformed records clearly.
  • Add tests for normal cases and important edge cases.
  • Build the project from a clean build directory.
  • Record known limitations and possible extensions.

Optional extensions

Add category reports, CSV import and export, a transaction history, a database-ready repository interface, a command-line argument parser, or a basic multi-user permission model. Add one extension at a time and test its effect on the existing design.

The capstone is an educational application. It should demonstrate design and programming skills, but it is not automatically production-ready without security, data protection, deployment, and operational review.

Suggested project structure

Use separate headers, source files, tests, and documentation so the project remains understandable as features are added. 

cpp-inventory-project/
├── CMakeLists.txt
├── include/
│   ├── Product.hpp
│   ├── Inventory.hpp
│   └── Storage.hpp
├── src/
│   ├── Product.cpp
│   ├── Inventory.cpp
│   ├── Storage.cpp
│   └── main.cpp
├── tests/
│   ├── product_tests.cpp
│   └── inventory_tests.cpp
├── data/
│   └── sample-inventory.txt
├── docs/
│   ├── design-notes.md
│   └── test-checklist.md
├── README.md
└── .gitignore

The exact structure may differ. The important goal is to separate interface declarations, implementation, tests, sample data, and project documentation.

Modern C++ design practices

The course introduces modern practices gradually. Apply them when they make ownership, readability, safety, and maintenance clearer.

Ownership

Prefer clear lifetime rules

Know which object owns a resource, how long it lives, and what happens when operations fail.

RAII

Pair acquisition with cleanup

Use object lifetimes to manage files, locks, memory, and other resources safely.

STL

Use standard components

Prefer tested containers and algorithms when they express the problem clearly.

Const

Communicate what changes

Use const-correctness to make interfaces easier to understand and protect values from accidental changes.

Testing

Test behavior, not implementation details

Check public behavior, validation, errors, and important domain rules.

Clarity

Choose simple abstractions

Avoid adding templates or inheritance when a smaller, clearer design solves the problem.

Smart pointers such as unique ownership and shared ownership types are tools for expressing lifetime decisions; they are not a substitute for understanding ownership. [91][93]

Tools and technologies

  • C++
  • G++
  • Clang concepts
  • Visual Studio Code
  • CMake
  • Git
  • GitHub
  • Debugger concepts
  • STL
  • Unit-testing concepts

Supporting concepts

  • Compiler warnings and readable diagnostics.
  • Header guards or pragma-once concepts.
  • Build directories and reproducible commands.
  • Version control and small reviewable commits.
  • Debugging with breakpoints and variable inspection.
  • Complexity, performance, and memory considerations.

Learning outcomes

By completing the proposed lessons and exercises, aim to demonstrate the following abilities:

  • Write, compile, and run structured C++ programs.
  • Use functions and classes to separate responsibilities.
  • Apply encapsulation, inheritance, and polymorphism carefully.
  • Choose STL containers for common data-access needs.
  • Use iterators, algorithms, and lambdas effectively.
  • Create reusable template utilities.
  • Handle invalid input and exceptions clearly.
  • Explain pointers, references, and ownership decisions.
  • Use files and resource-management practices safely.
  • Build a multi-file project using CMake concepts.
  • Test, document, and present a C++ application.

These are learning objectives, not guarantees of employment, certification, placement, or a particular programming role. Progress depends on practice, code review, and continued project work.

Related career interests

Illustrative directions for continued learning, not job or placement guarantees.

  • C++ Developer
  • Software Engineer
  • Application Developer
  • Systems Programming Trainee
  • Embedded Software Trainee
  • Tools Developer
  • QA Automation Developer
  • Associate Engineer

Portfolio presentation ideas

  • Explain the inventory problem and intended users.
  • Show the main classes and their responsibilities.
  • Demonstrate STL searches, sorting, and reports.
  • Explain how invalid input is handled.
  • Show file persistence and malformed-record behavior.
  • Describe ownership and resource-management decisions.
  • Build the project using documented CMake commands.
  • Demonstrate tests and one debugging example.
  • Discuss one design trade-off and a future extension.

Frequently asked questions

Who is this course for?

It is suitable for beginners with basic programming logic, developers moving from C, and learners who want to build modular C++ applications.

Do I need to know C first?

No. C knowledge is helpful for understanding lower-level concepts, but the course introduces the required C++ foundations.

What is STL?

The Standard Template Library provides containers, iterators, algorithms, and related reusable components for common programming tasks. [88]

Does the course cover pointers?

Yes. It covers references, pointers, ownership, lifetime, smart pointers, RAII, and safer resource management practices.

Does the course cover modern C++?

The proposed outline includes modern practices such as auto, range-based loops, nullptr, lambdas, smart pointers, RAII, and selected standard-library features. Confirm the exact language standard used in the delivered course.

What is the capstone project?

The proposed capstone is an Inventory Management System with product CRUD operations, search, stock updates, file persistence, validation, modular design, and documentation.

Why is CMake included?

CMake helps define and manage C++ build processes across platforms. It is included so learners can organize and reproduce multi-file project builds. [87][89]

Which tools are used?

The suggested toolkit includes G++, Visual Studio Code, CMake, Git, GitHub, standard-library components, debugger concepts, and unit-testing concepts.

How long is the course?

The supplied course information proposes a duration of 10 weeks. Confirm the official timetable and practical requirements before publishing or enrolling.

Will the course guarantee a job?

No. The course can support programming practice and portfolio development, but it does not guarantee employment, placement, certification, or salary.

How do I enroll?

This is a frontend course-information demonstration. Enrollment, payment, scheduling, and admission workflows are not implemented on this page.

Build with strong foundations

Create your next C++ application

Learn modern C++ syntax, object-oriented design, STL, resource management, project structure, and build-system fundamentals through practical work.

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