Verilog Hardware Description Language (HDL) is a popular programming language used in the design and verification of digital circuits. As the demand for Verilog HDL expertise continues to grow in the industry, individuals seeking to enhance their skills and knowledge in this field may consider taking an online course. With a variety of options available, it can be challenging to find the best course that fits one’s learning needs and preferences. In this article, we will explore some of the top Verilog HDL programming courses available online, highlighting their key features and benefits.
Here’s a look at the Best Verilog Hdl Programming Courses and Certifications Online and what they have to offer for you!
10 Best Verilog Hdl Programming Courses and Certifications Online
- 10 Best Verilog Hdl Programming Courses and Certifications Online
- 1. Verilog HDL Through Examples by Sujithkumar MA (Udemy) (Our Best Pick)
- 2. Verilog HDL: VLSI Hardware Design Comprehensive Masterclass by Shepherd Tutorials (Udemy)
- 3. FPGA Embedded Design, Part 1 – Verilog by Eduardo Corpeño, Marissa Siliezar (Udemy)
- 4. Verilog for an FPGA Engineer with Xilinx Vivado Design Suite by Kumar Khandagle (Udemy)
- 5. System Design using Verilog by Dr. Yogesh Misra (Udemy)
- 6. Verilog HDL Fundamentals for Digital Design and Verification by Ovidiu Plugariu (Udemy)
- 7. Learn Verilog with Xilinx VIVADO Tool by Digitronix Nepal (Udemy)
- 8. Complete Verilog HDL programming with Examples and Projects by Surender Reddy (Udemy)
- 9. Effective Verilog Learning with Intel FPGAs by Muhammad Tahir Rana (Udemy)
- 10. SPI Interface in an FPGA in VHDL and Verilog by Russell Merrick (Udemy)
1. Verilog HDL Through Examples by Sujithkumar MA (Udemy) (Our Best Pick)
The Course ‘Verilog HDL through Examples’ is designed to teach Verilog Hardware Description Language (HDL) to model digital circuits using various examples. Verilog is commonly used to describe microprocessors, memories, and flip flops. The language is also suitable for timing and test analysis of circuits. The course aims to explain the differences between programming languages like C, C++, and Python and hardware description languages like Verilog, VHDL, and SystemVerilog. The fundamental concepts of Verilog are explained using standard combinational and sequential circuits. Additionally, the course provides theoretical explanations for each circuit implemented in Verilog.
The course teaches how to write Verilog code for various circuit designs and includes creating Finite State Machines. Testbenches are created for each design to learn how to test and validate circuits. The course also includes using EDA Playground for Verilog coding and generating output waveforms using EPWave. The course covers key concepts of Verilog, such as levels of abstraction, two types of assignments, producing delay, generating clock, and procedural assignments.
The course is divided into 11 sections: Introduction, Understanding all the basic components of Verilog code, Writing our first code in Verilog – Example 1, Dataflow Modelling and Behavioral Modelling for Example 1, Example 2 – Half adder design using all the three types of modelling, Example 3 – Full adder design using all the three types of modelling, Example 4 – 4 bit Parallel Adder design in Verilog, Example 5 – Carry Look Ahead Adder in Verilog, Example 6 – Code Converters in Verilog, Example 7 – Multiplexers and Demultiplexers in Verilog, Example 8 – Flip Flop Design in Verilog, Example 9 – One’s complement arithmetic (Vectors in Verilog), Example 10 – Creating a FSM in Verilog, and Resources.
The Verilog HDL: VLSI Hardware Design Comprehensive Masterclass is a course instructed by Shepherd Tutorials. This course provides a thorough understanding of logic design for hardware using Verilog Hardware Description Language. The course is designed for individuals seeking job-oriented training with a focus on VLSI, Soc, Processor, and FPGA. The course follows a unique, structured approach that blends theory and practical applications for optimal learning.
The Verilog HDL course provides unlimited instructor support, emphasizing intricate details in hardware design. The principles of hardware design are demonstrated through multiple examples, including good coding guidelines and bad examples to avoid. Upon completion of the course, students will be able to confidently write synthesizable code for complex hardware design. The course includes a thorough discussion of every hardware component design, detailing the relationship between code and digital hardware units.
The Verilog HDL course provides access to all course materials and future upgrades. Students can download 100+ code examples and test benches used in the course. The course includes quizzes and assignments to check student understanding, and students can work through the lessons at their own pace.
The Verilog HDL course is divided into several sections, including Introduction, Verilog Basics, Designing Combinational Logic, Designing Sequential Logic, Designing Memories, and Designing Finite State Machines.
The course entitled “FPGA Embedded Design, Part 1 – Verilog” is offered by Eduardo Corpeño and Marissa Siliezar. The course aims to teach the basics of FPGA embedded application design, enabling students to design high-performance systems like professional equipment designers. The course is ideal for those who want to learn more about embedded application design techniques.
The course is focused on the FPGA design that students will learn. An FPGA is an integrated circuit that can behave as a logic circuit, and the programming of the desired behavior is done through a Hardware Description Language (HDL). Verilog is one of the most widely used HDLs, and it is the language that will be taught in this course. Students will learn the concurrent paradigm of Verilog and how to design digital systems with it.
The course consists of several sections, such as Introduction, Hardware Description Languages, Refresher on Digital Circuit Design, Verilog Hardware Description Language, Software Tutorial, Quick Overview of EDA Playground, Quick Overview of Modelsim, Coding Elements of Verilog, A Combinational System Example, A Sequential System Example, and Wrap Up.
The course is an opportunity to explore the other side of embedded systems: FPGA Embedded Design. It is suitable for those who want to learn more about FPGA design and how it can be used to create high-performance systems. The course will provide students with the necessary knowledge to design their own working designs.
This course titled “Verilog for an FPGA Engineer with Xilinx Vivado Design Suite” is targeted towards individuals interested in expanding their knowledge of Field Programmable Gate Arrays (FPGAs) and developing their skills in the Verilog language. The course is instructed by Kumar Khandagle and provides a comprehensive overview of the Verilog language, including the use of modeling style, blocking and non-blocking assignments, synthesizable Finite State Machines (FSM), and creating memories with block and distribute memory resources.
The curriculum is designed to equip students with the practical knowledge required by most firms working in FPGA design. The course curriculum includes step-by-step instructions for installing Vivado, exploring the Vivado Design Flow, and implementation strategies for achieving the desired performance. Students will learn how to interface real peripheral devices to the FPGA through numerous projects, and gain an understanding of FPGA internal resources and verification steps through a separate section on writing testbenches and FPGA architecture.
The course also covers hardware debugging techniques, such as Integrated Logic Analyzers (ILA) and Virtual Input/Output (VIO). Students will learn how to design and implement hardware architectures using Xilinx IP integrator and Xilinx IP’s. The course includes a section on interview preparation and guidance on next steps for further development.
Overall, this course provides a comprehensive and practical understanding of FPGA design using the Verilog language, and is ideal for engineers seeking to expand their knowledge in this field.
The System Design using Verilog course is designed to provide learners with the necessary knowledge and skills to design FPGA-based systems. The course is instructed by Dr. Yogesh Misra and covers a range of topics relevant to FPGA design.
The course content includes an understanding of design metrics optimized by design engineers, IC design technology, and various types of ASIC technologies. It also covers the benefits and drawbacks of using various types of IC technologies, as well as the implementation of logic in PLDs and FPGAs.
The course covers the IC design flow and the role of HDL in system design, along with the concepts of various Verilog language constructs and operators used in Verilog coding. Learners will also learn how to use Xilinx software for writing, simulating, and implementing Verilog code.
The course covers the implementation of combinational and sequential logic using different modeling styles, including behavioral, dataflow, and structural modeling. It also covers switch level modeling and the use of mos transistors in logic design.
Overall, the System Design using Verilog course is a comprehensive program that equips learners with the skills needed for FPGA design.
This course, titled “Verilog HDL Fundamentals for Digital Design and Verification,” offers a comprehensive foundation in digital circuits design using the Verilog Hardware Description Language. The course is designed for beginners and hobbyists interested in digital microelectronics and digital circuit design and verification. It contains over 150 lectures, more than half of which are hands-on exercises, and covers everything from digital circuits theory to industry-level coding techniques.
From the Digital Design perspective, students will learn how to implement synthesizable Verilog code for ASIC/FPGA from a digital circuit diagram/schematic or a functional description. From the Functional Verification perspective, they will learn how to create stimuli for a digital circuit and implement a self-checking testbench to validate its functionality. The course also covers different Verilog coding styles, such as structural, dataflow, and behavioral, and how to use them to design synthesizable digital circuits.
Students will learn how to use Modelsim – Intel FPGA Edition, an industry-level Verilog HDL simulator, to simulate their Verilog code and interpret the outputs. The course covers a range of topics, including combinational and sequential logic, structural/dataflow/behavioral coding styles, flip-flops, shift registers, counters, encoders, decoders, and more complex circuits like Finite State Machines, SRAM, ROM, FIFO, and data encryption modules.
The course’s approach starts with real engineering problems and presents a real digital circuit that solves the problem, followed by how to model and test it using Verilog. Students are walked through this process every single time, with the instructor explaining the story behind the Verilog code so that they can write the Verilog code behind the story.
Learning Verilog HDL is essential for digital design and functional verification engineering, and this course aims to make the language easy to learn by breaking down its steep learning curve.
The “Learn Verilog with Xilinx VIVADO Tool” course offered by Digitronix Nepal provides a crash course on Verilog programming using Xilinx VIVADO design suite for FPGA development. Verilog is a dominant hardware description language used in the FPGA/ASIC/VLSI design and verification market globally, with around 50% of market share. This course aims to introduce Verilog programming in a simple manner for beginners, from scratch to intermediate level.
The course is divided into different sections, including an introduction and basic design with Verilog programming, simulation with Verilog and creating Verilog testbench, conditional statement in Verilog, combinational circuit design with Verilog, sequential circuit design with Verilog, finite state machine (FSM) design, and structural modeling with Verilog. All these sections have lab sessions that students will perform on VIVADO design suite.
VIVADO is a state-of-the-art FPGA design environment from Xilinx that offers great features for designing HDL projects, synthesizing and implementing HDL projects, generating bitstream, and configuring projects on FPGA. The tool also offers features on design/resources optimization, static timing analysis, and performance optimization.
By taking this course, students will gain knowledge of Verilog programming and VIVADO, which can give them the edge in the job market. The course offers a comprehensive Verilog reference guide, from basics to advanced Verilog design. It concludes with a summary of Verilog programming.
Overall, the “Learn Verilog with Xilinx VIVADO Tool” course is an excellent opportunity for individuals who want to learn Verilog programming using VIVADO design suite.
The “Complete Verilog HDL programming with Examples and Projects” course is designed for both freshers and experienced individuals. It covers the fundamental and application level concepts of Verilog HDL programming, as well as its properties compared to C-Language.
The course provides an overview of VLSI design flow for both FPGA and ASIC, and explains different styles of programming including Gate level, Data flow, Behavioral, and switch level with examples. It also delves into verification and simulation, and provides examples such as a counter and clock diver using a counter, and a pulse generator.
The course further explains verification models using test benches with task and system tasks, which includes file-based system tasks for reading and writing data, loading data into memory, and random data generation. It also covers Finite State Machines (FSM), including how to draw and realize them into hardware models, and how to translate them into Verilog code for both Mealy and Moore FSM with examples.
Additionally, the course includes projects such as Memory controller, FIFO controller, and Error detection & correction using Hamming code, which improve analytical and problem-solving skills. The course concludes by providing basic knowledge on FPGA’s, such as the core concept of how a bit file is loaded into an FPGA.
The course is divided into several sections, starting with an Introduction to the course, followed by an Introduction to Verilog HDL, VLSI design flow for FPGA and ASIC, Three levels of Verilog design Description, Verilog Language constructs, Data types and Compiler Directives, Verilog Program structure, Gate level modeling, Data flow modeling, Behavioral Modeling, Switch level modeling, Test bench, Functions and Task and system tasks, FSM, Sequence detector using FSM with complete Design and TB, Project 1: Memory controller, Project 2: FIFO, Project 3: Hamming code complete Design and TB for error detection and correction, and finally, FPGA.
Course Title: Effective Verilog Learning with Intel FPGAs
This course, instructed by Muhammad Tahir Rana, is designed to provide step-by-step guidance for students interested in developing digital systems using Verilog and Intel FPGAs. The course covers all aspects of digital system development, utilizing two different Intel FPGA development boards and freely available software such as Quartus Lite and ModelSim. However, purchasing the development boards is optional, as the course can still be completed without them.
In addition to Intel FPGAs, the course also briefly introduces FPGAs and tool chains from other vendors. The course content is organized into the following sections: Introductions, Software Installations, Introduction to Hardware Description Language (HDL), HDL Design Constructs with Examples, TCL Language and Testing Automation, Some Quartus options, Advance Topics and UART Project, and Conclusion: Intel Part.
The course provides a comprehensive overview of hardware description language and design constructs, utilizing examples to ensure that students fully understand the concepts. Additionally, students will learn about TCL language and testing automation, Quartus options, and advanced topics such as UART Project.
At the conclusion of the course, students will have gained the necessary skills and knowledge to become confident developers of digital systems using Verilog and Intel FPGAs. The course also provides additional resources for students interested in Xilinx tool chain and FPGAs.
This course provides an overview of the SPI interface and its communication process. The course aims to equip learners with the necessary knowledge and skills to become an expert in SPI communication. The course will cover the basics of the SPI interface, including the functions of each signal, and how master to slave communication is possible.
The course will also delve into the VHDL and Verilog code for an SPI Master controller, and demonstrate how to communicate with a peripheral device. The course comprises three sections: Introduction, SPI in VHDL, and SPI in Verilog. Additionally, there is a section on a PROJECT that involves an Ambient Light Sensor using SPI.
The Introduction section provides a brief overview of the course content and outlines the expected outcomes of the course. The SPI in VHDL and SPI in Verilog sections go in-depth into the VHDL and Verilog code for an SPI Master controller. The course also provides a practical application of the concept, with a PROJECT section that involves building an Ambient Light Sensor using SPI.
Finally, the course offers a List of Resources section, which provides additional resources for learners who wish to explore the topic further.