Programming FPGAs summary

Understanding FPGA and Verilog

In Programming FPGAs by Simon Monk, we begin our journey into the world of Field Programmable Gate Arrays (FPGAs). The author explains how FPGAs are different from traditional microcontrollers and how they can be programmed to perform various tasks. We also get introduced to Verilog, a hardware description language used to program FPGAs.

Monk then delves into the Mojo v3, a development board that uses an FPGA, and shows us how to set it up. We learn about the Mojo's hardware components and how to program it using the Mojo IDE. We also get a basic understanding of digital logic and how it applies to FPGAs.

Learning the Basics of Verilog

The next section of the book focuses on Verilog programming. Monk takes us through the basic syntax of Verilog and teaches us how to write simple programs. We learn about modules, input and output ports, data types, and operators. We also explore sequential and combinational logic, and how they are implemented in Verilog.

As we progress, we move on to more complex Verilog concepts. Monk introduces us to state machines and shows us how to implement them using Verilog. We also learn about finite state machines, their design, and how they can be used to control the behavior of digital systems.

Building Real-World Projects

In the latter half of Programming FPGAs, we put our Verilog knowledge to practical use by building real-world projects. Monk starts with simple projects like blinking an LED and then moves on to more complex tasks such as creating a tone generator and a VGA video output. We learn how to use the Mojo's peripherals, such as buttons, switches, and the display.

One of the highlights of the book is the Memory Mapped Video project. Monk guides us through the process of creating a simple video game using the Mojo and a VGA display. We learn how to handle user inputs, create game logic, and generate video signals using Verilog.

Advanced Concepts and Conclusion

In the final chapters, Monk introduces us to some advanced Verilog concepts. We learn about parameterized modules, which allow us to create reusable and flexible designs. We also get a glimpse of more complex FPGA architectures and how they can be programmed.

In conclusion, Programming FPGAs by Simon Monk is a comprehensive guide for beginners looking to enter the world of FPGAs and Verilog. The book provides a solid foundation in digital logic, Verilog programming, and FPGA development. With its hands-on approach and practical projects, it equips the readers with the knowledge and confidence to start building their own FPGA-based creations.