🎉 DV200: The Ultimate RTL Design and Verification Playground 🛠️

Welcome to DV200, your go-to repository for exploring, learning, and mastering RTL design and verification. Whether you're a seasoned hardware engineer or a curious beginner, DV200 offers a variety of simple yet illustrative digital designs and their corresponding verification code. Let's dive into the fascinating world of digital logic, flip some bits, and learn through hands-on experimentation. Let's make circuits and have fun! 🚀🔧

Table of Contents

• 🎉 DV200: The Ultimate RTL Design and Verification Playground 🛠️
  • Table of Contents
  • Repository Layout 🗂️
  • Why DV200? 🤔
  • Getting Started 🏁
    • Prerequisites 🛠️
    • Clone the Repository 🖥️
  • Toolchain Requirements 🧰
  • Contribute 💡
  • Contact Me 📬

Repository Layout 🗂️

The structure of the DV200 repository is designed for clarity and ease of use:

Important

• ▣ How to write Verilog Code

• ▣ Basic 🔻

  • 1 . AND Gate
  • 2 . OR Gate
  • 3 . NOT Gate
  • 4 . NAND Gate
  • 5 . NOR Gate
  • 6 . XOR Gate
  • 7 . XNOR Gate
  • 8 . Tri-State Buffer
• ▣ Combinational 🔻

  • 1 . Half Adder
  • 2 . Full Adder
  • 3 . Half Subtractor
  • 4 . Full Subtractor
  • 5 . Adder cum Subtractor
  • 6 . 2 to 1 MUX
  • 7 . 4 to 1 MUX
  • 8 . 8 to 1 MUX
  • 9 . 2 to 4 Decoder
  • 10 . 3 to 8 Decoder
  • 11 . 1 to 4 DEMUX
  • 12 . 1 to 8 DEMUX
  • 13 . Bidirectional Buffer
  • 14 . Binary to Gray Converter
  • 15 . Gray to Binary Converter
  • 16 . Priority Encoder
• ▣ Arithematic Circuits 🔻

  • 1 . Ripple Carry Adder
  • 2 . Carry Look Ahead Adder
  • 3 . Carry Save Adder
• ▣ Memory Elements 🔻

  • 1 . Synchronous Dual-Port RAM
  • 2 . Asynchronous Dual-Port RAM
  • 3 . FIFO
  • 4 . Singleport RAM

• ▣ VERIFICATION

Why DV200? 🤔

DV200 is more than just a collection of RTL designs. It's an educational playground:

• Learn by Doing: Hands-on examples of digital circuits. 🚀
• End-to-End Projects: Each design comes with a testbench, promoting a thorough understanding of both design and verification. 📚
• Community Driven: Contributions are welcome, making it a collaborative effort. 🤝

Getting Started 🏁

Follow these steps to dive into the DV200 universe:

Prerequisites 🛠️

Ensure you have the following tools:

• Verilog/SystemVerilog compiler (e.g., Synopsys VCS, Cadence Xcelium, ModelSim)
• A simulator (e.g., Synopsys VCS, Cadence Xcelium, ModelSim)
• Make (optional, for running scripts)

Clone the Repository 🖥️

git clone https://github.com/Nidhinchandran47/DV200.git
cd DV200

Toolchain Requirements 🧰

Make sure your environment is equipped with:

• Verilog/SystemVerilog Compiler: Tools like Synopsys VCS, Cadence Xcelium, or ModelSim.
• Simulator: To run the compiled designs.

Or you can use online tools like EDA Playground

Contribute 💡

Join the DV200 community and help us grow! Here's how:

1. Fork the repository: Create your own copy on GitHub. 🍴
2. Create a branch: git checkout -b my-feature-branch 🌿
3. Make your changes: Improve designs, add features, new designs, fix bugs. 🔧
4. Commit your changes: git commit -m 'Add some feature' 📝
5. Push to your branch: git push origin my-feature-branch 🚀
6. Open a pull request: We'll review and merge your changes. 🔍

Contact Me 📬

Have questions or feedback or do you find and mistake here? I love to hear from you! Reach out at ...💬.

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DV200 isn't just a repository—it's a community and a learning resource. Dive in, explore the designs, run simulations, and become a part of the DV200 journey. Let's design the future, one module at a time. 🛠️✨