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C++ Programming - Fundamental

Learn C++ fundamentals for Digital IC design, verification, and EDA-based development

This course teaches C++ fundamentals for Digital IC design and verification work. It covers core language concepts, object-oriented programming, and practical coding techniques used in EDA-related development, helping learners write clear, reliable, and structured C++ code for hardware-oriented tasks.

Created by EDA Academy

Last update 07/2026

Mode Self-paced

Language English

5.0

(0)

students

C++ Programming - Fundamental

Learn C++ fundamentals for Digital IC design, verification, and EDA-based development

Created by EDA Academy

Last update 07/2026

Mode Self-paced

Language English

5.0

(0)

students

This course includes

10 modules

46 lectures

72 assessment questions

8.94 hours on-demand video

Access on mobile and laptop

Certificate of completion

10 modules

46 lectures

72 assessment questions

8.94 hours on-demand video

Access on mobile and laptop

Certificate of completion

What you'll learn

Build and Apply Core C Programming Foundations

Apply Object-Oriented Principles to C++ Program Design

Write Simple C++ Programs Using Classes and Objects

Manage Object Lifecycle Using Constructors and Destructors

Manage Function Behavior and Scope in C++ Programs

Control Type Conversion Behavior in C++ Programs

Improve Class Usability Using Operator Overloading

Apply Inheritance Concepts for Better Code Organization

Build and Apply Core C Programming Foundations

Apply Object-Oriented Principles to C++ Program Design

Write Simple C++ Programs Using Classes and Objects

Manage Object Lifecycle Using Constructors and Destructors

Use Reference Variables for Efficient Data Access in C++

Manage Function Behavior and Scope in C++ Programs

Control Type Conversion Behavior in C++ Programs

Improve Class Usability Using Operator Overloading

Who is this course for

Digital IC design engineers who need practical C++ programming skills

Verification engineers who use C++ in hardware development workflows

Learners preparing for Digital IC design and verification roles

Engineers who want C++ knowledge for EDA-related development tasks

C programmers who want to apply C++ in Digital IC environments

Developers involved in High-Level Synthesis or C++ to RTL workflows

Engineers who need C++ for structured design and verification code

Hardware-focused developers who need reusable and maintainable C++ code

Digital IC design engineers who need practical C++ programming skills

Verification engineers who use C++ in hardware development workflows

Learners preparing for Digital IC design and verification roles

Engineers who want C++ knowledge for EDA-related development tasks

Programmers moving from procedural coding into hardware-oriented C++ design

C programmers who want to apply C++ in Digital IC environments

Developers involved in High-Level Synthesis or C++ to RTL workflows

Engineers who need C++ for structured design and verification code

Requirements

Have a basic working knowledge of the C programming language

Know how to write and run small procedural programs

Be able to use a computer for coding and file management

Be able to compile and run code in a development environment

Have a basic working knowledge of the C programming language

Know how to write and run small procedural programs

Be able to use a computer for coding and file management

Be able to compile and run code in a development environment

Description

C++ builds on procedural programming foundations and extends them with stronger abstraction and control over data and behavior. Core language elements include program structure, execution flow, and memory organization. Data types, pointers, arrays, and structured data define how information is stored and accessed. Linkage, scope, and storage duration determine visibility and lifetime of program elements. Compilation and linking processes connect source code into executable programs, requiring clear understanding of translation units and build workflows. Object-oriented design introduces classes and objects as the primary way to model systems. Encapsulation groups data and functions together, improving clarity and maintainability. Access control defines how internal data is exposed and protected. Differences between procedural and object-based modeling highlight the advantages of abstraction in managing complexity. Clear naming, scope resolution, and controlled interfaces support consistent and predictable program structure. Program construction relies on correct use of class members, standard input and output mechanisms, and dynamic memory management. The this pointer represents ...