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Your FPGA Guy Christman

Learn the Essentials of VHDL and FPGA Development is course that will teach you the fundamentals and basics of VHDL design. Prior to working through the courses you will go through the VHDL design structure section that will explain the various concepts and terms needed to implement the projects in VHDL. In this course you will be working through various projects that will require you to go through the entire FPGA development process. You will be guided through the coding of the actual VHDL to the synthesis using either Xilinx’s development tool, Vivado or Altera/Intel's development tool Quartus. The projects in this course:

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Learn the Essentials of VHDL and FPGA Development is course that will teach you the fundamentals and basics of VHDL design. Prior to working through the courses you will go through the VHDL design structure section that will explain the various concepts and terms needed to implement the projects in VHDL. In this course you will be working through various projects that will require you to go through the entire FPGA development process. You will be guided through the coding of the actual VHDL to the synthesis using either Xilinx’s development tool, Vivado or Altera/Intel's development tool Quartus. The projects in this course:

  1. Shift Register Design

    1. A project that takes you through the design and simulation steps to fully test and implement a shift register.

  2. Buttons & LEDs

    1. A project that is designed to teach students the very basics of VHDL as well as how to make specific pins on an FPGA inputs (buttons) and outputs (LEDs).

All of the required background and knowledge to complete each project will be explained prior to completing the projects above. There are demonstration videos and walkthroughs for each project so that you can have a deep understanding of how the project works. Walkthroughs of the completed projects are also included to further your understanding of how these designs are implemented.

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What's inside

Learning objectives

  • Understand the vhdl design and development process
  • Learn how to implement designs using vhdl development tools
  • Become familiar with the various fpga development tools available
  • Complete projects from conception to full implementation

Syllabus

Students will have an understanding of what this course covers and who the instructor is.

This lecture introduces the course and instructor to the students.

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This lecture introduces VHDL and how it'll be used in this course.

This lecture goes through the steps for creating a project in Vivado, which is a tool used to implement VHDL designs on a Xilinx FPGA.

This lecture goes through the steps for creating a project in Quartus, which is a tool used to implement VHDL designs on a Intel FPGA.

This lectures covers the various keywords used in VHDL.

This lecture walks through several of the common VHDL libraries.

This lecture explains what the entity and architecture portions of the VHDL design are.

This lecture discusses VHDL generics and how they are used.

This lecture describes the various data types used in the VHDL language.

This lecture discusses the specific VHDL data type integer.

This lecture discusses how the when-else statement is used in a VHDL design.

This lecture discusses the difference between concurrent and sequential statements in VHDL.

This lecture introduces the simulation section in this course.

This lecture talks through a shift register design.

This lecture goes through the process for creating a test bench.

This lecture walks through the process of creating a TCL script for simulation.

This lecture introduces the tool ModelSim, used to simulate VHDL designs.

This lecture walks through the process of creating a project in ModelSim.

This lecture walks through how to run a simulation in ModelSim, step by step.

This lecture provides an example of creating a *.tcl script for use within ModelSim.

This lecture explains how to navigate various portions of the ModelSim software.

This lecture introduces the Vivado VHDL simulation tool.

This lecture walks through using the Vivado simulation tool.

This lecture shows how to navigate the Vivado simulations.

This lecture talks about what is required to complete this project.

This is the complete design walkthrough for the button led project.

This lecture goes through what is required to place the IO on the Arty A7.

This explains how to generate a Xilinx programming file.

This lecture explains how to program the Arty A7 development board.

This is the demonstration of the completed project running on the Arty A7.

This lecture goes through the pin placement process for the DE10 Nano development board.

This lecture walks through the process for generating the Intel programming file.

This lecture describes how to program the DE10 Nano Development board.

This is a demonstration of the completed project running on the DE10 Nano development board.

This lecture discusses what a VHDL process is.

This lecture talks about how if statements are used and the specific syntax.

This lecture explains how if statements can be used to implement prioritization.

Traffic lights

Read about what's good
what should give you pause
and possible dealbreakers
Guides learners through the entire FPGA development process, from coding VHDL to synthesis using Vivado or Quartus, which are industry-standard tools
Uses both Xilinx's Vivado and Altera/Intel's Quartus development tools, which allows learners to gain experience with multiple industry-relevant platforms
Includes demonstration videos and walkthroughs for each project, which can deepen learners' understanding of how the projects work and how designs are implemented
Requires either Xilinx’s Vivado or Altera/Intel's Quartus, which may require a paid license depending on the scale and complexity of the projects undertaken
Covers softcore processors like MicroBlaze and Nios II, which are essential for designing embedded systems on FPGAs, expanding the scope of projects learners can undertake
Teaches ModelSim, which is used to simulate VHDL designs, but learners should be aware that other, newer simulation tools may be available

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Reviews summary

Fundamentals of vhdl and fpga development

According to learners, this course provides a solid foundation in VHDL and FPGA basics, suitable for beginners looking to understand the development process. Students particularly appreciate the hands-on projects and practical demonstrations that guide them through using industry tools like Vivado and Quartus. While some reviews note the course covers fundamental concepts and simple projects, a few mention that the pace can be challenging for absolute newcomers or that the material could benefit from more in-depth coverage of advanced topics or troubleshooting common issues. Overall, it's viewed as a valuable starting point for diving into the world of hardware description languages and FPGAs.
Well-organized content flow.
"The course is structured logically, moving from theory to practical application."
"Each section flows well into the next, making it easy to follow the development process."
"Modules are well-organized and build upon previous concepts."
"The syllabus breakdown matched the course content well."
Covers use of major FPGA tools.
"Using ModelSim for simulation was well explained."
"Guides you through using Vivado and Quartus, which is essential for real-world use."
"Appreciated the walkthroughs for setting up projects in different software."
"Shows you the practical steps needed to synthesize and program an FPGA."
Accessible introduction to the subject.
"Perfectly suited for someone with no prior experience in VHDL or FPGAs."
"Starts with the basics and builds up gradually."
"The content is explained clearly enough for a beginner to follow."
"I was completely new and this course made the initial steps manageable."
Hands-on labs and demos are valuable.
"The hands-on coding and projects are the strongest part of the course for me."
"I found the demonstrations of implementing designs on actual boards very helpful."
"The projects helped solidify my understanding by applying concepts learned in lectures."
"Working through the button/LED and shift register projects was very practical."
Provides a strong base for beginners.
"This course provided me with a solid foundation in using VHDL for basic FPGA tasks."
"I learned the fundamentals needed to start working with VHDL and popular development tools."
"A great starting point if you are new to VHDL and FPGA development."
"Gave me the essential knowledge to understand the overall process."
May be challenging; could go deeper.
"Sometimes the pace felt a bit fast, especially for absolute beginners."
"Could use more in-depth coverage on complex topics or optimization techniques."
"Wish there were more examples of slightly more advanced designs."
"Troubleshooting common issues could be covered more extensively."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Learn VHDL and FPGA Development with these activities:
Review Digital Logic Fundamentals
Solidify your understanding of digital logic concepts. This will provide a strong foundation for understanding VHDL's underlying principles.
Browse courses on Boolean Algebra
Show steps
  • Review textbooks or online resources on digital logic.
  • Practice solving problems related to logic gate simplification and circuit design.
  • Familiarize yourself with common digital components like adders, multiplexers, and decoders.
Read 'VHDL by Example'
Gain a practical understanding of VHDL syntax and usage. This book offers numerous examples that complement the course's project-based approach.
View VHDL BY EXAMPLE on Amazon
Show steps
  • Read the introductory chapters to understand VHDL basics.
  • Work through the examples provided in the book, experimenting with different code variations.
  • Relate the book's examples to the projects covered in the course.
Implement Basic VHDL Constructs
Reinforce your understanding of VHDL syntax and semantics. This will improve your ability to write and debug VHDL code efficiently.
Show steps
  • Write VHDL code for basic logic gates (AND, OR, NOT, XOR).
  • Implement a simple adder circuit using VHDL.
  • Create a VHDL module for a D flip-flop.
  • Simulate your designs using a VHDL simulator (e.g., ModelSim, Vivado Simulator).
Four other activities
Expand to see all activities and additional details
Show all seven activities
Document Your FPGA Projects
Improve your understanding of your own designs by documenting them. This will also help you communicate your work to others.
Show steps
  • Create a README file for each project, describing its purpose and functionality.
  • Add comments to your VHDL code to explain the design choices and implementation details.
  • Create a block diagram of the system architecture.
  • Write a short report summarizing the project's results and any challenges encountered.
Design a Simple Counter
Apply your VHDL knowledge to a practical design problem. This will help you develop problem-solving skills and gain experience with the FPGA development workflow.
Show steps
  • Define the specifications for the counter (e.g., number of bits, counting direction).
  • Write VHDL code for the counter, including the necessary logic for incrementing/decrementing the count.
  • Create a testbench to verify the functionality of the counter.
  • Synthesize and implement the counter on an FPGA development board.
  • Test the counter on the FPGA board and debug any issues.
Explore 'FPGA Prototyping by VHDL Examples'
Deepen your understanding of FPGA implementation details. This book provides practical examples of how to map VHDL designs onto FPGA hardware.
Show steps
  • Read the chapters related to specific FPGA architectures and implementation techniques.
  • Experiment with the examples provided in the book, modifying them to suit your own needs.
  • Compare the book's examples to the projects covered in the course, identifying similarities and differences.
Contribute to an Open-Source VHDL Project
Gain real-world experience by contributing to an open-source project. This will expose you to different coding styles, project management practices, and collaboration workflows.
Show steps
  • Find an open-source VHDL project on platforms like GitHub or GitLab.
  • Review the project's documentation and code to understand its purpose and structure.
  • Identify a bug or feature that you can contribute to the project.
  • Implement your changes and submit a pull request.
  • Respond to feedback from the project maintainers and revise your code as needed.

Career center

Learners who complete Learn VHDL and FPGA Development will develop knowledge and skills that may be useful to these careers:
FPGA Design Engineer
An FPGA Design Engineer specializes in creating digital circuits using Field Programmable Gate Arrays. The emphasis of this course on VHDL design, simulation, and implementation on both Xilinx and Altera FPGAs, means this course is directly relevant. The various projects in the course, such as shift registers, and LED controllers, allow students to master skills needed for this role. An FPGA Design Engineer who has taken this course will be prepared to work on complex digital designs using industry standard tools.
Embedded Systems Engineer
An Embedded Systems Engineer develops software and hardware for embedded systems, like those found in appliances, medical devices, and automobiles. This course is very relevant because it provides an understanding of VHDL, FPGA development, and hardware interaction, all essential for this role. The course projects, which cover topics from basic VHDL design to softcore processor use, prepare an engineer to work on integrated hardware and software solutions. An Embedded Systems Engineer who has completed this course will be able to design and implement complex embedded systems.
Hardware Engineer
A Hardware Engineer designs, develops, and tests computer hardware, including circuit boards and other physical components. This course, which covers the fundamentals of VHDL design and FPGA development, provides a critical foundation for this role. The course’s hands-on projects, which include shift register design and button/LED control, directly align with the practical skills needed in this career. Furthermore, the course's coverage of Xilinx and Altera development tools provides the necessary expertise for implementing designs on real hardware. A Hardware Engineer who has taken this course will be ready to contribute to projects that involve programming hardware.
Digital Design Engineer
A Digital Design Engineer creates digital circuits and systems, often working with languages like VHDL. This course provides a foundation in VHDL, covering key design concepts and implementation techniques, in addition to providing experience with industry tools like Vivado and Quartus. The course’s projects, including the LED brightness project, provide practical skills in creating functional digital hardware. The hands-on VHDL design skills taught will allow a Digital Design Engineer to create effective digital circuits.
Firmware Engineer
A Firmware Engineer focuses on the low-level software that controls hardware components, needing a strong grasp of hardware interaction and programming, and this course will be helpful. This course’s emphasis on VHDL design and FPGA development is central to this role, because firmware is often developed and tested on FPGAs. The included projects, which range from basic designs to more complex UART implementations, provide a practical approach to working with hardware-level code. A Firmware Engineer will use the skills learned to create robust and efficient firmware for various embedded systems.
Verification Engineer
Verification Engineers validate the functionality of hardware designs, often utilizing simulation tools and test benches. The VHDL and FPGA focused course emphasizes simulation techniques, especially its detailed look into ModelSim and Vivado's simulation tools that are critical for this career. The course's instructions on the creation of test benches and TCL scripts are particularly relevant, allowing a Verification Engineer to create robust test plans. A Verification Engineer will be able to efficiently verify complex hardware designs.
ASIC Design Engineer
An ASIC Design Engineer develops Application Specific Integrated Circuits, which are custom circuits developed for a specific usage, and this course may be useful. Though ASICs and FPGAs are different, this course helps develop the core design skills necessary for the role. This course's instruction on VHDL provides familiarity with hardware design and the projects provide real examples. Furthermore, the course introduces concepts needed for hardware description. An ASIC Design Engineer who has completed this course will have an advantage when working with hardware design.
Robotics Engineer
A Robotics Engineer designs and builds robots and robotic systems, which often involves working with embedded hardware and control systems. This course may be useful because of its focus on VHDL and FPGA development, which are crucial for implementing complex control algorithms and managing sensor data within robots. The hands-on projects included, such as the UART project, provide practical skills this career requires. A Robotics Engineer may find the VHDL design skills to be particularly useful when integrating custom hardware with a robot's controller.
Aerospace Engineer
An Aerospace Engineer designs aircraft, spacecraft, and related systems. Some of these systems require embedded hardware, making this course helpful to those aiming for this role. The course’s material on VHDL and FPGA development, along with the included projects like the UART demonstration, give the student a practical understanding of embedded hardware implementation. The material on softcore processors and their implementation could give an Aerospace Engineer an edge when working on avionics systems.
Electrical Engineer
An Electrical Engineer designs, develops, and tests electrical equipment, which in some cases includes embedded systems. This course may be useful because its focus on VHDL and FPGA development provides the practical knowledge needed to work with digital hardware. The projects in this course, such as button control and LED driving, provide practical experience that any Electrical Engineer could use. The course provides a useful approach to designing and testing complex circuits.
Computer Engineer
A Computer Engineer designs and develops computer hardware and software. This course may be useful because it focuses on hardware description and implementation using VHDL and FPGAs. The course projects on topics like shift registers and soft-core processors, provide practical experience in working with low-level hardware. A Computer Engineer with this background will be better able to design and optimize computer systems.
Automation Engineer
An Automation Engineer designs and implements control systems for automated industrial processes. The material on VHDL and FPGA development may be useful for some Automation Engineers who work with custom control hardware, and provides a base understanding of hardware design. The course’s projects covering practical applications of VHDL and the use of development tools are relevant to certain aspects of this career. An Automation Engineer with knowledge of this course content will be well positioned to work on embedded control systems.
Systems Engineer
A Systems Engineer works with complex systems, and may be involved in many different aspects of design, including hardware. This course may be useful because it provides a broad understanding of the hardware development process, covering VHDL design and FPGA implementation. The hands-on experience from the projects, including button control and softcore processors, can be helpful. The exposure to multiple development tools provided in this course makes a Systems Engineer well-rounded in hardware.
Research Scientist
A Research Scientist engages in scientific research. This course may be helpful if they are involved in experimental electronics, such as physics or robotics. The course's focus on VHDL and FPGA design can help a Research Scientist create custom hardware for experiments and data acquisition. The detailed coverage of simulation and hardware implementation provides a practical approach to tackling technically challenging experiments. A Research Scientist can leverage this course to develop custom instrumentation.
Technical Consultant
A Technical Consultant provides expert advice on technology. This course may be helpful for a consultant who needs to understand hardware design processes. The course's coverage of VHDL and FPGA development, from basic concepts to practical projects, provides a technical view of hardware implementation, which helps when assessing solutions for clients. The Technical Consultant will be well positioned to understand and leverage hardware technologies.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Learn VHDL and FPGA Development.
Provides a practical, example-driven approach to learning VHDL. It covers a wide range of VHDL constructs and demonstrates their use in real-world designs. It is particularly helpful for understanding how to translate theoretical concepts into working code. This book serves as a valuable reference throughout the course and beyond.
Focuses on practical FPGA prototyping using VHDL. It provides numerous examples of how to implement various digital systems on FPGAs. It is particularly useful for understanding the hardware aspects of FPGA development and how to optimize VHDL code for hardware implementation. This book great resource for expanding your knowledge beyond the course's introductory level.

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