Digital IC Fundamentals - Functional Design

Build a solid foundation in digital IC design, from HDL basics to working systems

This program develops practical skill in digital IC functional design. You will explore HDLs, encodings, combinational and sequential logic, arithmetic units, memories, FSMs, and system-level structures, building the intuition needed to read, reason about, and design reliable digital hardware architectures.

Created by EDA Academy

Last update 07/2026

Mode Self-paced

Language English

5.0

(0)

students

Digital IC Fundamentals - Functional Design

Build a solid foundation in digital IC design, from HDL basics to working systems

Created by EDA Academy

Last update 07/2026

Mode Self-paced

Language English

5.0

(0)

students

This course includes

11 modules

59 lectures

85 assessment questions

8.29 hours on-demand video

Access on mobile and laptop

Certificate of completion

11 modules

59 lectures

85 assessment questions

8.29 hours on-demand video

Access on mobile and laptop

Certificate of completion

What you'll learn

Evaluate how HDLs transform design flow, simulation practice, and logic expression

Distinguish multiple binary and specialty encodings used in digital systems

Identify and explain core combinational logic elements and their behavior

Understand timing behavior and storage elements used in sequential logic

Explore implementation styles and timing effects in FSM architectures

Evaluate how different memory organizations manage data flow

Understand Synchronous Sequential Machine Design and Optimization

Explore Real-World Asynchronous Design and Troubleshooting Methods

Evaluate how HDLs transform design flow, simulation practice, and logic expression

Distinguish multiple binary and specialty encodings used in digital systems

Identify and explain core combinational logic elements and their behavior

Understand timing behavior and storage elements used in sequential logic

Analyze binary arithmetic logic and its commonly used structures

Explore implementation styles and timing effects in FSM architectures

Evaluate how different memory organizations manage data flow

Understand Synchronous Sequential Machine Design and Optimization

Who is this course for

Junior digital design engineers wanting a stronger fundamentals refresh

Verification engineers who need deeper insight into design intent and structure

Computer engineering students preparing for hardware design roles

System architects who want clearer intuition about datapaths and control

Engineers new to HDLs who need a guided conceptual roadmap

FPGA hobbyists interested in more disciplined hardware methodologies

Technical leads mentoring junior team members in hardware topics

Anyone who knows binary and wants to design real digital logic

Junior digital design engineers wanting a stronger fundamentals refresh

Verification engineers who need deeper insight into design intent and structure

Computer engineering students preparing for hardware design roles

System architects who want clearer intuition about datapaths and control

Verification or DFT engineers transitioning into front-end RTL design

Engineers new to HDLs who need a guided conceptual roadmap

FPGA hobbyists interested in more disciplined hardware methodologies

Technical leads mentoring junior team members in hardware topics

Requirements

Familiarity with elementary digital logic concepts like gates, truth tables, and circuits.

Comfort with abstract thinking and logical reasoning will make it easier to understand complex digital design principles.

Know how to perform basic operations with binary numbers and how they relate to digital systems.

Familiarity with hardware design principles, such as creating and analyzing digital circuits.

Familiarity with elementary digital logic concepts like gates, truth tables, and circuits.

Comfort with abstract thinking and logical reasoning will make it easier to understand complex digital design principles.

Know how to perform basic operations with binary numbers and how they relate to digital systems.

Familiarity with hardware design principles, such as creating and analyzing digital circuits.

Description

Digital integrated circuits power nearly every modern device, from high-performance servers to everyday consumer electronics. Behind each of these systems lies a complex design flow that transforms an initial concept into functioning silicon. This course introduces that journey in a clear and accessible way, showing how ideas evolve into structured specifications, how architectures emerge from design intent, and how engineers translate these decisions into hardware-ready descriptions. Each stage of the flow builds on the previous one, forming a pipeline of decisions that must balance innovation, engineering discipline, and practical constraints. The course begins with the foundations of semiconductor technology, exploring how transistors, physical layers, manufacturing processes, and global production realities shape what is possible in chip design. From there, it moves into the heart of digital system creation: defining specifications and building microarchitectures that express behavior and structure. These early choices determine performance goals, communication patterns, power expectations, and hardware boundaries. A strong understanding of these fundamentals prepares learners...