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Verilog HDL for Beginners — Digital Logic & RTL Design

Name: Verilog HDL for Beginners — Digital Logic & RTL Design
Rating: 5.0 (4 reviews)

Master Verilog HDL, RTL coding, digital logic design, adders, ALU, multiplexers, decoders, encoders, and combinational

Created byEddin VLSI labs

Last updated 10/2026

English

English [Auto],

What you'll learn

Understand Verilog HDL syntax, modules, ports, signals, and structural, behavioral, and dataflow modeling.
Design combinational circuits using Verilog, including adders, subtractors, multiplexers, decoders, and encoders.
Implement arithmetic circuits, comparators, code converters, and basic ALU designs using Verilog HDL.
Understand Boolean expressions, conditional constructs, and the fundamentals of Verilog simulation and testbenches.

Course content

5 sections • 23 lectures • 6h 11m total length

Course Introduction2:22
Welcome to Verilog HDL for Beginners! In this lecture, you will explore the course roadmap, learning objectives, and applications of Verilog in digital design and VLSI engineering. Get an overview of the journey from digital hardware fundamentals to writing and simulating your first RTL designs.
Introduction to Digital Hardware10:06
Discover the fundamentals of digital hardware and how electronic systems process binary information. Learn about digital signals, logic gates, basic digital building blocks, and the role of digital logic in processors, controllers, and FPGA-based systems.
CAD Tools for Digital Design31:48
Understand how computer-aided design (CAD) tools support digital hardware development. Explore the purpose of HDL editors, simulators, synthesis tools, implementation tools, and FPGA design environments, and learn how these tools fit into a typical digital design workflow.
Installing Vivado and Digilent Board Files9:23
Set up the FPGA development environment using AMD Xilinx Vivado and the required Digilent board files. Learn how to prepare the tools for project creation, RTL development, simulation, synthesis, and FPGA implementation. Installation steps and supported board versions may vary by software release.
End-to-End FPGA Project21:39
Explore an end-to-end FPGA design workflow using the Nexys A7 development board. Understand how an RTL project is created, how design files and constraints are managed, and how synthesis, implementation, bitstream generation, and hardware programming fit into an FPGA project.

Verilog HDL Modeling Styles4:39
Learn the three major approaches to describing digital hardware in Verilog: structural, dataflow, and behavioral modeling. Understand their characteristics, compare their coding approaches, and identify when each style is useful in RTL development.
Structural Modeling in Verilog14:01
Explore structural modeling by connecting logic gates and smaller modules to form a complete circuit. Learn about module instantiation, port connections, and signal interconnections, and understand how a digital design can be represented as a hierarchy of hardware components.
Behavioral Modeling in Verilog14:14
Understand behavioral modeling and how procedural statements describe hardware functionality. Explore always blocks, conditional statements, and case constructs, and learn how to express circuit behavior in readable Verilog code while maintaining synthesizable coding practices.
Hierarchical Verilog Design17:13
Learn how to organize complex designs into smaller, reusable modules. Understand module hierarchy, parent and child modules, port mapping, and component reuse. Discover how hierarchical design improves readability, maintainability, and scalability in digital hardware projects.
Verilog Arithmetic Operators16:06
Explore arithmetic operators in Verilog, including addition, subtraction, multiplication, division, and modulus where applicable. Learn how operators are used in expressions, understand basic width and signedness considerations, and apply arithmetic expressions to digital circuit descriptions.
Representing Numbers in Verilog5:26
Learn how to represent binary, decimal, octal, and hexadecimal values in Verilog. Understand sized and unsized literals, radix notation, vectors, and basic signed and unsigned representations. Develop the skills needed to read and write numeric constants correctly in RTL code.
Generic and Parameterized Verilog Code19:47
Discover how parameters and reusable RTL descriptions help create flexible hardware modules. Learn how parameterized designs can support configurable widths and other design choices, reduce code duplication, and make digital circuits easier to reuse across different applications.

Introduction to Arithmetic Circuits and Testbenches2:14
Understand the fundamentals of arithmetic circuits and how simulation helps verify their functionality. Learn the purpose of a testbench, how to apply input stimulus, observe outputs, and check circuit behavior against expected results before proceeding to more complex RTL designs.
Adder Design in Verilog23:55
Learn the fundamentals of binary addition and the role of sum and carry signals. Explore adder circuit behavior and Verilog implementation techniques, and understand how arithmetic hardware is used in processors, ALUs, counters, and other digital systems.
Subtractor Design in Verilog16:34
Understand binary subtraction, difference generation, and borrow behavior. Learn how subtractor logic can be expressed in Verilog and explore the role of subtraction circuits in arithmetic units and digital processing systems.
Signed Numbers and Arithmetic Overflow26:47
Learn how signed and unsigned values differ in digital hardware. Explore two's-complement representation, arithmetic range, expression sizing, and overflow concepts. Understand why correct width and signedness handling matters when writing reliable arithmetic RTL.
Developing Simple Verilog Testbenches22:47
Learn how to create a basic Verilog testbench to exercise a design under test. Explore stimulus generation, simulation control, output observation, and result checking. Build confidence in validating RTL functionality before moving to more advanced verification techniques.

Introduction to Combinational Logic Building Blocks0:41
Explore combinational circuits, where outputs depend on current inputs rather than stored state. Understand logic functions, truth tables, Boolean expressions, and common building blocks used to construct larger digital systems.
Multiplexer Design in Verilog30:34
Learn how multiplexers select one input from multiple signals using select lines. Explore multiplexer functionality and Verilog implementation, and understand how MUX circuits support data routing, control logic, and datapath design.
Conditional Constructs and Verilog Coding Guidelines22:10
Understand conditional constructs used to describe combinational behavior, including if-else, case, and the conditional operator. Learn good RTL coding practices, complete assignments, and how to avoid unintended latch inference when describing combinational logic.
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Decoder Design in Verilog23:29
Learn how a decoder converts an input code into a corresponding output pattern. Explore decoder truth tables, enable signals, and Verilog implementation techniques, and understand decoder applications in address selection and digital control logic.
Encoder and Priority Encoder Design25:55
Understand how encoders convert active input signals into a coded output. Explore the difference between standard and priority encoders, learn how priority resolves multiple active inputs, and examine how encoder functionality can be described in Verilog.
Code Converter Design in Verilog9:29
Learn the purpose of digital code converters and how they translate one representation into another. Explore conversion logic, truth-table-based design, and Verilog implementation concepts used in digital systems.

Requirements

No prior Verilog HDL programming experience is required.
Basic knowledge of digital electronics is helpful but not mandatory.
A computer capable of running a Verilog simulator is recommended.
Vivado or another compatible Verilog simulation tool can be used for hands-on practice.
Curiosity about digital circuits, hardware design, and RTL programming is all you need to get started.

Description

Verilog HDL for Beginners: RTL Design & Digital Logic

Want to learn Verilog HDL, digital logic design, and RTL coding from scratch? Welcome to Eddin VLSI Labs, where you can build a strong foundation in digital hardware design through structured learning.

Verilog HDL (Hardware Description Language) is an essential skill for aspiring RTL design engineers, FPGA developers, and VLSI professionals. This course introduces you to Verilog programming and explains how to describe combinational digital circuits using RTL.

Whether you are an ECE student, an engineering graduate, a beginner learning hardware description languages, or someone preparing for entry-level VLSI design opportunities, this course provides a starting point for your digital design journey.

What You Will Learn

Verilog HDL fundamentals, syntax, modules, ports, wires, and signals
Structural, behavioral, and dataflow modeling in Verilog
Digital logic design and Boolean expressions
Combinational logic design using RTL coding
Half adders, full adders, subtractors, and ripple-carry adders
Arithmetic Logic Unit (ALU) design fundamentals
Comparators and code converters
Multiplexer design and different Verilog coding styles
Decoder, encoder, and priority encoder implementation
Conditional constructs and introductory testbench concepts

Practical Verilog HDL and RTL Design

Learn how Verilog describes digital hardware and how different modeling styles represent logic circuits. Explore common combinational circuits and understand how their functionality can be expressed using synthesizable RTL code.

These concepts provide a foundation for further study in sequential logic, counters, finite state machines (FSMs), SystemVerilog, UVM, and advanced digital design.

Who Should Enroll?

This course is designed for:

Electronics and Communication Engineering (ECE) students
Electrical and Electronics Engineering (EEE) students
Beginners learning Verilog HDL programming
Aspiring RTL design and VLSI engineers
Students preparing for Verilog and digital design interviews
FPGA enthusiasts learning digital circuit implementation
Engineers who want to strengthen their digital logic fundamentals

Prerequisites

No previous Verilog HDL programming experience is required. Basic digital electronics knowledge is helpful but not mandatory. A computer with a compatible Verilog simulator is recommended for hands-on practice.

Start Your Digital Design Journey

Build your foundation in Verilog HDL, combinational logic, and RTL design with Eddin VLSI Labs.

This is Part 1 of our planned Verilog HDL learning series. Continue with Part 2 to explore sequential circuits, counters, and finite state machines, followed by Part 3 covering advanced Verilog concepts, FPGA implementation, and UART projects.

Eddin VLSI Labs — Learn. Design. Verify.

Verilog HDL, Verilog for beginners, RTL design, digital logic design, Verilog programming, combinational logic, VLSI design, FPGA design, Verilog interview preparation.

Who this course is for:

on Engineering (ECE), Electrical Engineering (EEE), and related engineering students who want to learn Verilog HDL.
Beginners interested in digital logic design and hardware description languages.
Aspiring VLSI engineers preparing to enter RTL design and digital hardware development.
Students preparing for entry-level Verilog HDL, digital design, and VLSI technical interviews.
FPGA enthusiasts who want to understand how combinational circuits are described and simulated using Verilog.
Anyone who wants to build a strong foundation in Verilog HDL before progressing to sequential logic, SystemVerilog, and advanced RTL design.

Verilog HDL for Beginners — Digital Logic & RTL Design

What you'll learn

Explore related topics

Course content

Introduction to Digital Design and Vivado5 lectures • 1hr 15min

Verilog HDL Fundamentals and Modeling Styles7 lectures • 1hr 31min

Arithmetic Circuit Design and Verification5 lectures • 1hr 32min

Combinational Logic and Multiplexers3 lectures • 53min

Decoders, Encoders and Code Converters3 lectures • 59min

Requirements

Description

Who this course is for: