Pyuvm Series Part 4 : Python Oops Verification Env Projects

Step by Step Guide from Scratch

What you'll learn

Verification of Combinational Circuit

Verification of Sequential Circuit

Verification of UART device

Verification of SPI device with and without slave

Verification of I2C device

Requirements

Fundamentals of Digital Electronics and Verilog

Completion of Python for VLSI Engineer P1, P2 and P3 Course or Fundamentals of Python, Python OOPs & COCOTB

Description

Welcome to our comprehensive course on Class-Based Python Verification Environment for Digital Design! In this dynamic program, participants will delve into the realm of hardware verification, focusing on UART, SPI, DFF, I2C, FIFO, and combinational multiplier Design Under Test (DUT). Leveraging the power of Python and object-oriented programming, this course equips learners with the essential skills to construct robust verification environments for these key digital components.Throughout the course, participants will gain hands-on experience in creating modular and reusable verification components using Python classes. We will explore the intricacies of UART, SPI, DFF, I2C, FIFO, and combinational multiplier behaviors and implement comprehensive testbenches to verify their functionality. Participants will learn how to create comprehensive verification plans, write effective test cases to ensure a thorough and well-documented verification process.By adopting a class-based approach, participants will develop a deep understanding of the underlying design principles and be well-prepared to handle complex verification scenarios.Key topics include building a scalable testbench architecture, crafting effective stimulus generation and response checking mechanisms, and implementing advanced features such as constrained random testing.Join us on this transformative journey, where you will not only gain expertise in class-based Python verification but also foster a holistic understanding of the digital design verification landscape. Elevate your career by mastering the skills necessary to navigate the complexities of modern digital systems and contribute effectively to the success of digital design projects.

Overview

Section 1: Introduction

Lecture 1 How to use IDE

Lecture 2 Code

Lecture 3 Components of Verification Environment

Lecture 4 Learning Path

Section 2: Combinational Circuit

Lecture 5 Design

Lecture 6 TB Part 1

Lecture 7 TB Part 2

Lecture 8 TB Part 3

Lecture 9 Design Code

Lecture 10 TB Code

Lecture 11 Makefile

Section 3: D-Flipflop

Lecture 12 Design

Lecture 13 TB Part 1

Lecture 14 TB Part 2

Lecture 15 Design Code

Lecture 16 TB Code

Lecture 17 Makefile

Section 4: FIFO

Lecture 18 Understanding Design

Lecture 19 TB part 1

Lecture 20 TB part 2

Lecture 21 Design Code

Lecture 22 TB Code

Lecture 23 Makefile

Section 5: SPI

Lecture 24 SPI Master Design

Lecture 25 TB Part 1

Lecture 26 TB Part 2

Lecture 27 TB Part 3

Lecture 28 TB Part 4

Lecture 29 Design Code

Lecture 30 TB Code

Lecture 31 Makefile

Lecture 32 SPI with Slave device Design

Lecture 33 Testbench COde

Lecture 34 Design Code

Lecture 35 Verilog TB

Lecture 36 TB Code

Lecture 37 Makefile

Section 6: I2C

Lecture 38 Understanding start and stop conditions

Lecture 39 I2C Write and Read Transactions

Lecture 40 I2C Master FSM

Lecture 41 I2C Master

Lecture 42 I2C Slave

Lecture 43 TB P1

Lecture 44 TB P2

Lecture 45 TB P3

Lecture 46 Design Code

Lecture 47 TB Code

Lecture 48 Makefile

Section 7: UART

Lecture 49 Understanding Design P1

Lecture 50 Understanding Design P2

Lecture 51 TB P1

Lecture 52 TB P2

Lecture 53 Design Code

Lecture 54 TB Code

Lecture 55 Makefile

If you're excited about Python and DUT verification with Python, this is the place for you.