Verilog Coding - Verification
Efficient RTL Design and Verification with Verilog
This course provides a comprehensive introduction to Verilog, one of the most popular hardware description languages in digital design. You'll learn key topics such as logic design fundamentals, writing testbenches, and advanced verification techniques. With a focus on hands-on practice, this course equips you to write efficient RTL designs and optimize verification processes. Whether you're a beginner or have some experience, you'll gain practical skills to enhance your digital design and verification capabilities.
Purchase
Our course syllabus undergoes regular updates to reflect the latest advancements and best practices in the field. Students who purchase lifetime access to this course are entitled to receive these updates for free, ensuring they stay abreast of the most current content. Subscribers, on the other hand, can access the latest content for free as long as they maintain their subscription to the course. This approach guarantees that our students and subscribers always have access to the most relevant and up-to-date information in the field.
Created by EDA Academy
English
Last updated Oct 2024
Verilog Coding – Verification
USD $49.9
-40% Today
$29.9
One-time Purchase
& Lifetime Access
OR
$9.9
Monthly Subscription
& Cancel Anytime
After this course you will be able to:
This course includes:
Course Content (Preview)
✓ Introduction to Basic Logic Gates and Simplification Techniques
✓ Fundamentals of Digital Logic and Sequential Circuit Design
✓ Design Principles and Key Concepts of Sequential Circuits
✓ Key Concepts and Benefits of Using HDLs in Digital Design
✓ Roles, Challenges, and Basics in Verilog HDL Design
✓ Verilog Module Instantiation, Connections, and Procedural Constructs
✓ Verilog Timing, Naming, and Simulation Processes
✓ Simulation Challenges, Historical Evolution, and Advanced Verification Techniques
✓ Profiling, Regression, and Debugging in Verification
✓ Simulation Sequencing, Evaluation Methods, and RTL Simulation Optimization Techniques
✓ Random Two-State Simulation Methods
✓ Specification and Design Decomposition, RTL Implementation and Synthesis
✓ Directed and Random Testing, Transaction Analyzer, Chip Initialization, and Verification Strategies
✓ Coverage, Event and Assertions
✓ Data Types, Case Equality Operators, and Procedural Continuous Assignments
✓ Loop Statements, Named Events, and Level-Sensitive Event Control
✓ Parallel Blocks, Timing Control, and Disabling Tasks
✓ Abstraction Levels, and Comparing Behavioral and RTL Modeling
✓ Designing and Modeling a Bus Interface Controller in Verilog
✓ Testbench Types, and Testbenches with File I/O
✓ Displaying and Formatting Output in Verilog
✓ Time Control and Signal Monitoring with Verilog System Tasks
✓ Writing and Reading Files, File Management, and Enhanced C-Style File I/O
✓ Simulation Control, Port Data Handling, and Command-Line Arguments
✓ VCD, EVCD, and Checkpointing
✓ Simulation Inputs, Outputs, Process, and Testbench Organization
✓ Hierarchical Naming, Clock Generation, and Stimulus Creation
✓ Incremental Testing Strategies and Stimulus Generation Methods
✓ Testing Corner Cases
✓ Testing Protocol Interactions
✓ Vector Capture and Replay
✓ Design Verification Challenge, Plan, and Goal
✓ System-Level Test, and Completion Criteria
✓ Managing Design Space, Testing Design Regression, and Self-Checking Test
✓ Test Configuration Using Source Code Constructs and Run-Time Scripts
✓ Test Configuration Using Microcode and PLI
✓ Script-Driven Testbench
Requirements
This course is designed for individuals interested in digital design and verification using Verilog. While it is beginner-friendly, some foundational knowledge in related fields will enhance the learning experience. A basic understanding of digital circuits and logic gates is essential, as is familiarity with any high-level programming language like C, C++, or Python. You should be comfortable installing software and running simulations, as the course involves hands-on verification techniques and testing methodologies. Prior experience with testbenches is beneficial but not required. Ultimately, this course is suitable for engineers or students who are keen to explore hardware design, verification strategies, and simulation practices. To get the most out of this course, it’s recommended that you meet the following prerequisites:
Who this course is for
Description
In this course, you will learn how to write and verify digital designs using Verilog, one of the most widely used hardware description languages in the industry. Whether you're a beginner or have some experience, this course covers essential topics like logic design fundamentals, writing testbenches, and advanced verification techniques. You'll explore how to use Verilog constructs, verification strategies, and simulation methods to ensure your designs are efficient and error-free. By the end of this course, you’ll be equipped with the knowledge to develop reliable RTL designs and master key techniques for fast and effective verification.
This course is designed to provide a comprehensive introduction to Verilog and its use in hardware verification. You’ll start by learning the basics of logic design, circuit analysis, and how Verilog fits into the digital design process. From there, the course introduces key verification techniques, emphasizing the importance of testing and debugging, which are crucial in ensuring the quality of digital designs. As you progress, you’ll gain an understanding of the core principles of verification and how to effectively apply them.
In addition to the basics, this course delves into advanced topics such as creating efficient testbenches, using Verilog constructs for verification, and optimizing simulation performance. You'll explore essential strategies like writing reusable and flexible testbenches, generating test stimuli, and using tools like assertions to enhance verification. By mastering these methods, you’ll be able to increase both the speed and accuracy of your design verification process.
Throughout the course, there are hands-on examples, guided exercises, and practical applications to help reinforce your learning. Whether you are an engineer looking to improve your verification skills or someone preparing for a career in hardware design, this course provides the foundational knowledge and practical experience to succeed.
Learning Objectives