How to find a job with Verilog skills

1. System Design using Verilog

4.5

(413)

After completion of this course learners will be able to:(1) Understand the concepts design metrics which are to be optimized by a design engineer(2) Understand the concepts of IC design technology(3) Understand the implementation of logic using Fixed Function IC Technology, Full Custom ASIC Technology, and Semi-Custom ASIC Technology(4) Understand the advantages and disadvantages of implementation of logic using Fixed Function IC Technology, Full Custom ASIC Technology, and Semi-Custom ASIC Technology(5) Understand the concept of implementation of logic in PLDs(6) Understand the concept of implementation of logic in FPGA(7) Understand the IC design flow(8) Understand the role of HDL in system design(9) Understand the concepts of various Verilog language constructs(10) Understand various operators and their uses in Verilog coding(11) Understand how to use Xilinx software for writing a Verilog code(12) Understand how to use Xilinx software for simulating a Verilog code(13) Understand how to use Xilinx software for implementing a Verilog code(14) Implement combinational logic by using behavioral modeling style(15) Implement combinational logic by using dataflow modeling style(16) Implement combinational logic by using structural modeling style(17) Implement sequential logic by using behavioral modeling style(18) Implement sequential logic by using dataflow modeling style(19) Implement sequential logic by using structural modeling style(20) Implement logic by using mos transistors...

2. Verilog HDL Through Examples

4.5

(109)

Hey there, I welcome you all to my course 'Verilog HDL through Examples'Why Verilog? 1. To describe any digital system - microprocessor, memory, flip flop, Verilog is used. Hence it's called as a hardware description language. 2. Using Verilog, we can model any electronic component and generate the schematic for the same. 3. For timing analysis and test analysis of circuits, Verilog is apt. Highlights of the course:1. Key differences between a programming language like C, C++ or Python and a hardware description language like Verilog, VHDL, SystemVerilog are clearly2. All the fundamental concepts of Verilog are explained through standard combinational and sequential circuits. 3. Learning through examples make them very simpler to learn. 4. Proper theoretical explanation is provided for each of the circuit that is implemented in verilog in this course. 5. Testbench for each design and knowing how to test and validate them. 6. Creating Finite State Machines in Verilog. 7. Download the code and design for each of the circuits in the resources section.8. Getting to know how to use EDA Playground for Verilog coding and how to generate the output waveform using EPWave. 9. Some of the key concepts of Verilog like Levels of Abstraction, Two types of assignments, Producing delay, generating clock, Procedural assignments are all explained clearly...

3. Verilog HDL Interview Preparation Guide

4.4

(50)

Verilog, standardized as IEEE 1364, is a hardware description language (HDL) used to design Digital Systems. Verilog remains a popular choice among Engineers working in the designing of a Digital System on FPGA. A Verilog HDL can also be used for performing verification at primary stages before proceeding towards extensive Design Verification with System Verilog. This Couse illustrates the fundamentals of Blocking, Non-blocking Operator, continuous and Procedural Assignment with simple examples focusing on the questions frequently asked in the Technical Interview round. The course also covers File I/O, SYnthesizable RTL Constructs, Common Counters, FSM Extractions, FPGA Methodology to ease Interview Preparation. Some of the common circuit-related questions are also covered to help understand the tricky question. Few sections consist of FPGA Design Flow, Common communication interfaces, and their implementation in Verilog which can also be mentioned in the CV to build CV. The Course is framed in a Question & Answer manner with a small video explanation to felicitate completion of the entire course within few hours before appearing for the interviews and without compromising on the FUndamentals. The key to success is to keep fundamentals of HDL clear and a thorough understanding of the Project mentioned in the CV. Good Luck with the Course...

4. Effective Verilog Learning with Intel FPGAs

4

(70)

This course is designed to make students confident developer of Digital Systems using Verilog and Intel FPGAs(2 different boards and FPGAs). Every aspect is discussed from different angles, so that whole concept becomes clear. This course uses two cheap Intel FPGAs development boards and freely available software(Quartus Lite , ModelSim). Purchasing of boards is absolutely optional. This course can be done without development boards. Additionally FPGAs and tool chains from other vendors are also introduced briefly...

5. FPGA Embedded Design, Part 1 - Verilog

4.6

(922)

Do you feel you've learned enough about microcontrollers? Do you want to learn more embedded application design techniques? How about a technique that will allow you to design high-performance systems the way professional equipment designers do?If you're still interested, this curriculum is for you. The FPGA Embedded Design series will teach you the exquisite art of FPGA design. So what is an FPGA anyway?Before moving on, let me tell you that an FPGA is not a microcontroller. It's not a computer. Well, at least not if you don't want it to be a microcontroller or computer. The simplest explanation of an FPGA I've found is that it's a shape shifter! It's an integrated circuit that will behave as the logic circuit you'd like, and the way of letting it know the desired behavior is, yes, you guessed it, through programming. But you will not do this with a Programming Language, but with a Hardware Description Language! In this course, you'll learn Verilog, which is one of the most widely used Hardware Description Languages (along with VHDL). You'll learn the concurrent paradigm in the Verilog code and how to design digital systems with this powerful language. You'll also learn that there are many purposes of an HDL: System design, simulation, implementation in either a traditional chip, or the popular FPGA alternative. Don't let this opportunity pass. Take the first step into the other side of embedded systems: FPGA Embedded Design...

6. Verilog HDL: VLSI Hardware Design Comprehensive Masterclass

4.3

(1,906)

A job oriented exhaustive course on logic design for hardware using the Verilog Hardware Description Language. Unique, tested and proven structured style and approach followed. Thoughtful blend of theory and practice for your learning. Unlimited support with the instructor. Understand all the intricate details in thinking and understanding hardware design. Principles are reinforced with multiple examples. Good coding guidelines and bad examples to avoid. After completing the course, you can confidently write synthesizable code for complex hardware design. Thorough discussion of every hardware component design. Detailed explanation of the relationship between code and digital hardware units. Freely download 100+ code examples and test benches used in the course. Access to all the materials and the future upgrades. Loads to quizzes and assignments to check your understanding. Work through the lessons at your own pace...

7. Verilog HDL Fundamentals for Digital Design and Verification

4.5

(479)

Are you a beginner or an enthusiastic hobbyist interested in digital circuits design using the Verilog Hardware Description Language? Did you try to learn Verilog HDL before, but found it very challenging? Are you curious if you have what it takes to become a digital chip designer or a functional verification engineer? Then you're in the right place! Verilog Hardware Description Language easy as A, B, C You'll learn the basics of digital circuits theory and we'll focus most of our energy on implementing practical coding examples with real digital circuits using Verilog. You will graduate this course with a strong foundation in Verilog HDL for both Digital Design and Functional Verification. From the Digital Design perspective, you'll be able to: start from a digital circuit diagram / schematic and implement synthesizable Verilog code for ASIC / FPGAstart from a functional description and implement synthesizable Verilog code for ASIC / FPGAFrom the Functional Verification perspective, you'll be able to: understand a functional description of a digital circuit and create stimuli for itimplement a self-checking testbench to validate the functionality of a digital circuitYou will easily differentiate between different Verilog coding styles (structural, dataflow, behavioral) and how to use them to design synthesizable digital circuits. You'll see just how easy modeling digital circuits using Verilog is! At the end of the course you'll master Verilog industry-level coding techniques to get the best results for digital design or verification. Learn how to use an industry-level Verilog HDL simulatorSimulations are a critical part in designing modern digital chips, thus you will install and learn how to use Modelsim - Intel FPGA Edition (free version for academic purpose).  You will be able to create projects, simulate your Verilog code, and interpret the outputs using an world-class simulator. Course OverviewThis course is tailored for beginners who are interested in digital microelectronics, digital circuit design and verification. The course contains more than 158 bite-sized lectures out of which more than half are hands-on exercises labeled Action Time. Each Action Time has downloadable resources which you can simulate immediately using Modelsim. Most of these sections also contain challenges for you, so you'll write extra code that extends beyond the initial functionality. Your first Verilog examples will be similar to a normal programming language (like C) to learn the operators, and, step-by-step, we'll advance together to the Hardware Description Language constructs, where Verilog procedures execute in parallel. You'll learn how to use Verilog for combinational and sequential logic and how to combine the Structural / Dataflow / Behavioral coding styles to obtain digital circuits with a specific functionality. Your circuits will get more complex as you advance, some of them being composed of a hierarchy of sub-circuits. Verilog combinational circuits you will implement during the course:  logic gates, adders, comparator, binary encoder / decoder, priority encoder, multiplexers / de-multiplexers, seven segment display decoder, Arithmetical Logical Unit (ALU), etc... Verilog sequential circuits you will implement during the course: flip-flops, latches, shift registers (PIPO, PISO, SIPO, SISO), Linear Feedback Shift Registers, synchronous counters, frequency dividers, Sequence Detector etc... Next, you'll experiment with Verilog functions and tasks and how to use them in testbenches and design.  In the final chapters you will design memories (SRAM and ROM), Finite State Machines, and more complex circuits like a FIFO and even a data encryption module. A workflow with destination SUCCESS! We start from real engineering problems and understand how a digital circuit solves that problem. You are presented a real digital circuit, how it is used in the real world, then how to model and test it using Verilog. You simulate it using Modelsim, and next I walk you through the results interpretation. We do this process together every single time....  I explain the story behind the Verilog code so that, at the end of the course, you will be able to write the Verilog code behind the story. Why learn Verilog HDL? Chances are more than 50% that all the chips in the devices around you were designed with Verilog. Working as a Digital Design or a Functional Verification engineer means to design today the technologies of tomorrow. This translates into having an exciting and challenging job with a great impact in the world. Since less than 2% of engineers choose this path and the semiconductor industry has never been busier, I'm pretty sure you will find yourself a good place in it. Verilog is a good foundation for learning SystemVerilog, which is a very popular object-oriented design and verification language in the semiconductor industry. Why did I create this course?As an engineering student, I found it quite challenging to learn Verilog because it has a very steep learning curve and you need lots of know-how to be able to run even a simple example. Because of this, most students give up learning Verilog for a career in Digital Design or Verification and this also negatively impacts their academic results. After 10+ years of industry experience, thousands of hours in Verilog, and academic research, I feel I've found the missing puzzle pieces that I didn't have back in the days. This course will show you the beauty and simplicity of digital circuits design using Verilog! Ready? Set. GO! Thank you for your interest in Verilog HDL for Digital Circuits Design and Functional Verification! Ready to embark on your journey in mastering the basics of Verilog HDL for digital design and verification? Let's start this wonderful adventure!...

8. Complete Verilog HDL programming with Examples and Projects

3.8

(205)

Complete Verilog HDL programming course with a perfect, well structured and concise course for freshers and experienced, as it is from fundamental level to the application level. This course discuss the concepts in Verilog HDL programming and properties compared with C-Language and discussing the features and advantages.        In this course we give information related to VLSI design flow for FPGA & ASIC and gives overview about both. This course gives information on different styles of programming like Gate level, Data flow, Behavioral and switch level with examples.        This course gives clear picture on verification, i. e. simulation and writing a test bench and some general examples like counter, clock diver using counter, pulse generator.        This courses explains how to write verification models using test benches with task and system tasks with Examples. These examples includes, file based system tasks such as writing data in to file, reading data from file and loading data in to memory and random data generator.       This courses shows clear picture on Finite State Machines (FSM)               how to draw,                how to realize it in to hardware model               how ro translate in to verilog code for both Mealy & Moore FSM with examples.        This course also shows some projects like Memory controller, FIFO controller and Error detection & correction using Hamming code, this improves ability to analyse and approach to Projects.         Finally it gives basic knowledge on FPGA's like core concept how bit file is loaded in to FPGA...

9. Mastering Digital VLSI, ASIC and Verilog Interview Questions

4.2

(128)

Do you want access to all the questions that are asked at the Big Tech Companies? Do you want to feel supremely confident going into the interview process? Do you want to ACE all the interviews and get the best possible offer(s)?If your answer to any of these questions is YES, then this course if for YOU! This course will expose you to a lot of Digital VLSI logic, design and architectural problems. This course will not only prepare you but also enhance your thought process when it comes to applying your knowledge to solve real world problems in the ASIC/ Digital Design world. Lot of System Verilog coding techniques which will help you understand how to use parameters and write RTL for scalability and reconfigurability which will help students differentiate themselves from competing candidates. The questions in this course will cover Microarchitecture, Design techniques, RTL coding, Power gating, Synthesis, UPF Flow, DFT, ECOs while keeping scaling and modular design in mind. It takes years in the industry to develop these design techniques and mindset. Lastly, the course will continue to evolve on a weekly basis. New lectures with latest questions and solutions will be added every week to help you keep up with the questions at the Big Tech companies...

10. Building a Processor with Verilog HDL from Scratch

4.2

(51)

Most of the 21st-century applications require powerful hardware but also along with the centralized controller allowing the development of complex algorithms. As we enter into the AI or Cloud-based devices and as systems complexity is growing daily, the need for incorporating multiple processor instances becomes mandatory as we progress in the AI era. Zynq and Microblaze are two popular alternatives that exist in the market suitable for almost any application requirements. The requirements of using Multiple instances of Processor viz. Multiple instances of Microblaze soft processor or using a hard processor such as Zynq Processor along with single or multiple instances of  Microblazer become necessary to independently handle both Data processing and control requirements. The fundamental challenge of incorporating multiple instances of Soft processors like Microblaze is the number of resources consumed for implementing Microblaze on the FPGA. Since FPGA consists of a limited amount of the FPGA resources, hardware and Software partition plays a prominent role in building complex systems. Another popular alternative approach followed by Embedded Engineers to build a Custom CPU /   Processor with the only required functionality thereby saving a large amount of the resources as compared to adding Microblaze instance. The course will discuss all the fundamentals required to build a simple processor/ CPU with Verilog HDL and strategies to test its functionality. After completing this course, you will understand all the necessary skills required to build Complex CPU architecture to meet requirements. Best wishes for crafting your own processor...

11. SPI Interface in an FPGA in VHDL and Verilog

4.2

(57)

This course will take you through the basics of SPI communication.  I will explain how the interface works, what each signal does, and talk about how master to slave communication is possible.  I then go through both the VHDL and Verilog code for an SPI Master controller and show how to communicate with a peripheral device...

12. AMBA AXI Infrastructure Based on Xilinx FPGA IPs and Verilog

4.5

(118)

Why AXI? ========= The answer is simple - there is NO any Soc or complex system, which does not contain AXI. If your work somehow is connected with processor, controller or any other big system than there will be multiple AXI buses in the system. AXI bus is a ARM standard bus, which is supported by all hardware companies e. g. Xilinx, Intel, AMD and so on. And by the advance of AI the AXI is going to be more and more popular. In this course AXI protocol and its sub-parts will be explained. Also as a free side knowledge you will study Vivado with its IPs, simulation methods and many more. Target Students==============The course is mainly targeted for FPGA designers, who are using AXI based modules in the design. Also the course will be useful for engineers who is starting to use AXI protocol. The course is extremely helpful for graduate students who is looking for a new job as a FPGA or Soc Developer, in my previous 3 companies AXI questions were the most often to ask the fresh graduates for hire. Course Content==============In the course mainly the basics of AXI protocol family is explained, which allows students easily understand and use AXI based IPs. This is more practical view of AXI usage allowing for jump start to use AXI based modules.  The course does not go to FPGA board level, as the target is AXI protocol and Xilinx provided AXI Infrastucture understanding. The course concentrated on simulation level, not FPGA board running is done. The AXI protocol is complex enough and sometimes it takes much time to get used to it. Usually the AXI protocol is easy to understand when you are familiar with much easy version of it, which are AXI-Stream and AXI-Lite. The course is based on bottom-up-style. At first I explain AXI-stream protocol, than explain AXI-Lite protocol in detail. We do both of these protocol designs using Verilog. Than having all that baggage of knowledge we move to AXI protocol. In the course I tried to review the ARM speck for AXI, hoping that this will help students easily jump in speck reading, after finishing the course. Special Thanks:=============I want to express special thanks to Eduard Vardanyan, from ARM, for his great support in making this course. His profound experience and deep knowledge helped me to explain complex AXI parts simply. Without his help I could not do this. Caution:=======Also I apologize for my English, I tried my best to speak clearly and grammatically correct, however sometimes there are some mistakes. I really hope that my non-native English will not bother students to understand the material. Course Materials:===============All course codes can be downloaded from Github. Note: If you have software background, I would suggest little bit become familiar with Verilog. There are several lectures which require Verilog and hardware basics...

13. Verilog for an FPGA Engineer with Xilinx Vivado Design Suite

4.5

(937)

FPGA's are everywhere with their presence in the diverse set of the domain is increasing day by day. The two most popular Hardware description languages are VHDL and Verilog each having its unique advantage over the other. The best part about both of them is once you know one of them you automatically understand the other and then the capabilities of both worlds can be used to build complex systems. The course focus on the Verilog language. The curriculum is framed by analyzing the most common skills required by most of the firms working in this domain.  Most of the concepts are explained considering practical real examples to help to build logic. The course illustrates the usage of  Modeling style, Blocking and Non-blocking assignments, Synthesizable FSM, Building Memories with Block and Distribute Memory resources, Vivado IP integrator, and Hardware debugging techniques such as ILA and VIO. The course explores FPGA Design flow with the Xilinx Vivado Design suite along with a discussion on implementation strategies to achieve desired performance. Numerous projects are illustrated in detail to understand the usage of the Verilog constructs to interface real peripheral devices to the FPGA. A separate section on writing Testebench and FPGA architecture further builds an understanding of the FPGA internal resources and steps to perform verification of the design...