VLSI Design and Verilog Programming: From Basics to Advanced from Udemy

Course Introduction:

VLSI (Very Large Scale Integration) is at the heart of modern electronics. This course provides an end-to-end understanding of VLSI design concepts, from MOSFET operations to advanced Verilog programming techniques. Whether you’re a beginner seeking to understand the basics or a professional looking to expand your skills, this course offers detailed insights into the principles, design methodologies, and practical applications of VLSI systems and Verilog. Step into the world of digital logic design, state machines, and hardware description languages, and prepare to build robust and scalable electronic designs.

Section 1: Fundamentals of VLSI and MOSFETs

This section introduces the basics of VLSI design and the operation of NMOS transistors. Students will gain an understanding of the fundamental building blocks of VLSI systems, focusing on how MOSFETs function and their role in electronic circuit design.

Section 2: Enhancing MOSFET Operations

Delve into the enhancement mode of MOSFETs and explore their operating characteristics in depth. Learn practical methodologies that govern their behavior and application in real-world scenarios.

Section 3: Exploring VLSI Design Domains

Discover the diverse domains within VLSI, including logic design, analog design, design verification, and physical design. This section also introduces advanced topics such as DFT (Design for Testability), AMS (Analog Mixed Signal), and physical verification processes, ending with a comprehensive overview of chip design steps.

Section 4: Fundamentals of Digital Logic Design

This section covers digital logic design, starting with basic and universal gates, progressing to CMOS logic, combinational and sequential circuits, and concluding with practical examples like the full adder design.

Section 5: Advanced Digital Logic Design

Building on the basics, this section focuses on sequential circuit components like SR latches and T flip-flops, introduces programmable logic devices, and explores FPGA fundamentals. Students will develop a solid foundation in digital system design.

Section 6: State Machines and Sequence Detectors

Learn about state machines, including Moore and Mealy models, and their application in detecting sequences. This section emphasizes real-world use cases to illustrate the utility of finite state machines (FSMs).

Section 7: Introduction to Verilog Programming

Step into hardware description languages with Verilog. This section introduces Verilog's features, design styles, syntax basics, and the use of identifiers and numeric representations in digital designs.

Section 8: Verilog Modules and Data Structures

Understand the structure of Verilog modules and explore key concepts like strings, registers, and memory elements. Learn to code practical digital components like D flip-flops and ripple carry counters in Verilog.

Section 9: Operators and Timing in Verilog

Master Verilog operators and timing controls, including delay-based and event-based mechanisms. This section includes examples of procedural blocks, conditional statements, and timing intricacies in Verilog designs.

Section 10: Advanced Verilog Programming

Explore advanced Verilog topics, such as looping statements, blocking and non-blocking assignments, and RTL design examples. This section culminates in a comprehensive wrap-up of Verilog’s application in real-world digital systems.

Conclusion:

This course bridges the gap between theory and practice in VLSI and Verilog programming. By the end, students will have a comprehensive understanding of digital design principles and hands-on experience with Verilog, preparing them to tackle real-world challenges in electronics and embedded systems.

What's inside

Learning objectives

Fundamental concepts of vlsi and mosfet operations.
Practical methodologies for vlsi design and chip development.
Digital logic design, including combinational and sequential circuits.

State machine design and sequence detection.
Basics to advanced programming in verilog.
Real-world applications of hardware description languages (hdls).

Fundamental concepts of vlsi and mosfet operations.
Practical methodologies for vlsi design and chip development.
Digital logic design, including combinational and sequential circuits.
State machine design and sequence detection.
Basics to advanced programming in verilog.
Real-world applications of hardware description languages (hdls).

Syllabus

Fundamentals of VLSI and MOSFETs

Vlsi Introduction Part 1

Vlsi Introduction Part 2

Enhancing MOSFET Operations

Enhancement Mode

Enhancement Mode and Part 2 Continued Part 1

Enhancement Mode and Part 2 Continued Part 2

Exploring VLSI Design Domains

Logic Design and Analog Design

Design Verification and Physical Design

Dft, Ams and Physical Verification Part 1

Dft, Ams and Physical Verification Part 2

Chip Design Steps

Fundamentals of Digital Logic Design

Basic Gates

Universal Gates, Cmos N and Part 1

Universal Gates, Cmos N and Part 2

Nor Cmos Equivalent

Combinational and Sequential Circuits Full Adder Example Part 1

Combinational and Sequential Circuits Full Adder Example Part 2

Advanced Digital Logic Design

Sr Latch, Tff Down Counter Part 1

Sr Latch, Tff Down Counter Part 2

Tff, Programmable Logic Intro Part 1

Tff, Programmable Logic Intro Part 2

Pla and Pal

Fpga Intro and Features Part 1

Fpga Intro and Features Part 2

State Machines and Sequence Detectors

State Machine Introduction Part 1

State Machine Introduction Part 2

State Machine Example Moore Model Part 1

State Machine Example Moore Model Part 2

Fsm To Detect Sequences Examples Part 1

Fsm To Detect Sequences Examples Part 2

End Of Digital Logic, Introduction To Verilog

Introduction To Verilog Programming

Verilog Features, Design Styles

Basics, Identifiers in Verilog

Numbers in Verilog

Verilog Modules and Data Structures

Strings, Registers, Data Types Part 1

Strings, Registers, Data Types Part 2

Time, Memories, Module Intro

Module Structure, Dflip Flop Verilog Code Part 1

Module Structure, Dflip Flop Verilog Code Part 2

Tflip,Flop, Ripple Carry Counter Part 1

Tflip,Flop, Ripple Carry Counter Part 2

Operators and Timing in Verilog

Basic Gates Instantiation

Verilog Operators Part 1

Verilog Operators Part 2

Operators Contd

Timing Control In Verilog-Delay Based

Delay Based Intra-Assign

Advanced Verilog Programming

Event Based Timing Control Part 1

Event Based Timing Control Part 2

Procedural Blocks In Verilog Part 1

Procedural Blocks In Verilog Part 2

Blocking-Non Blocking,Conditional Statements

Looping Statements and Rtl Example, Conclusion Part 1

Looping Statements and Rtl Example, Conclusion Part 2

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 VLSI Design and Verilog Programming: From Basics to Advanced with these activities:

Review Digital Logic Fundamentals

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Reinforce your understanding of digital logic concepts, which are essential for understanding VLSI design and Verilog programming.

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Review notes on logic gates and Boolean algebra.
Work through practice problems on combinational and sequential circuit design.
Simulate basic digital circuits using online tools.

Read 'Verilog HDL: A Guide to Digital Design and Synthesis'

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Enhance your Verilog programming skills with a comprehensive guide that covers both basic and advanced concepts.

View Verilog HDL A Guide to Digital Design and... on Amazon

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Read the chapters on Verilog syntax and semantics.
Work through the examples and exercises in the book.
Experiment with different Verilog design styles.

Read 'Digital Design and Computer Architecture'

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Supplement your understanding of digital design principles with a comprehensive textbook that covers both digital design and computer architecture.

View Digital Design and Computer Architecture on Amazon

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Read the chapters on combinational and sequential logic.
Work through the examples and exercises in the book.
Relate the concepts to VLSI design principles.

Four other activities

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Implement Basic Logic Circuits in Verilog

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Solidify your Verilog programming skills by implementing basic logic circuits, such as adders, multiplexers, and flip-flops.

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Write Verilog code for basic logic gates (AND, OR, NOT, XOR).
Implement a full adder using Verilog.
Design and simulate a D flip-flop in Verilog.
Test your implementations using a Verilog simulator.

Create a Verilog Tutorial

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Deepen your understanding of Verilog by creating a tutorial that explains key concepts and provides practical examples.

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Choose a specific Verilog topic (e.g., modules, operators, timing).
Research and gather information on the topic.
Write a clear and concise tutorial with examples.
Share your tutorial on a relevant online forum or platform.

Design a Simple ALU in Verilog

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Apply your knowledge of VLSI design and Verilog programming to design a simple Arithmetic Logic Unit (ALU).

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Define the functionality of the ALU (addition, subtraction, AND, OR).
Design the Verilog modules for each operation.
Integrate the modules into a complete ALU design.
Simulate and test the ALU using a Verilog simulator.

Contribute to an Open Source Verilog Project

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Gain practical experience and contribute to the Verilog community by participating in an open-source project.

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Find an open-source Verilog project on GitHub or GitLab.
Review the project's documentation and code.
Identify a bug or feature to work on.
Submit a pull request with your changes.

Career center

Learners who complete VLSI Design and Verilog Programming: From Basics to Advanced will develop knowledge and skills that may be useful to these careers:

VLSI Engineer

A VLSI Engineer designs, develops, and tests integrated circuits. The work of a VLSI Engineer includes tasks like digital design, circuit simulation, layout design, and verification using hardware description languages. This course is an end-to-end guide to VLSI design concepts that begins with MOSFET operations and culminates in advanced Verilog techniques. It helps VLSI Engineers build a knowledge of digital logic design, state machines, and hardware description languages. The course introduces Verilog’s features, design styles, syntax, and the use of identifiers and numeric representations in digital designs.

See salaries and explore the career path for VLSI Engineer

Hardware Design Engineer

A Hardware Design Engineer designs and tests computer hardware components, ensuring they meet specifications and function correctly within a system. Their tasks often include designing digital circuits, writing firmware, and testing prototypes. This course is extremely useful for a Hardware Design Engineer, as they will acquire an understanding of VLSI design concepts. The course helps one understand the structure of Verilog modules and explore key concepts like strings, registers, and memory elements, and to code practical digital components like D flip-flops.

See salaries and explore the career path for Hardware Design Engineer

Verification Engineer

A Verification Engineer ensures the correctness and reliability of hardware designs through simulation, testing, and formal verification methods. They create test plans, write test benches, and run simulations to identify design flaws and ensure compliance with specifications. This course helps Verification Engineers with VLSI design and chip development. This comprehensive course helps explore advanced Verilog topics, such as looping statements, blocking and non-blocking assignments, and RTL design examples, which is essential for verification processes.

See salaries and explore the career path for Verification Engineer

Circuit Design Engineer

A Circuit Design Engineer designs and tests electronic circuits, ensuring they meet performance, power, and reliability requirements. This course may assist Circuit Design Engineers to design combinational and sequential circuits. The course also includes practical examples like the full adder design. Basic knowledge of VLSI is necessary foundation for such engineer.

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Digital Design Engineer

Digital Design Engineers are responsible for designing and implementing digital circuits and systems. They use hardware description languages to create designs, simulate their behavior, and then implement them in hardware. This role designs digital logic, state machines, and makes use of hardware description languages. This course may be useful for Digital Design Engineers, as it may provide a foundation for them to build robust and scalable electronic designs. The course covers digital logic design and progresses to CMOS logic as well as combinational and sequential circuits.

See salaries and explore the career path for Digital Design Engineer

Test Engineer

A Test Engineer develops and implements testing strategies for electronic devices and systems to ensure that products meet specifications and quality standards. The knowledge of chip design steps and the fundamentals of digital logic design helps Test Engineers in the development of tests. This course may be useful for the Test Engineer, as they will learn basics to advanced programming in Verilog.

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FPGA Developer

An FPGA Developer is responsible for designing, implementing, and testing digital circuits on Field Programmable Gate Arrays. FPGA Developers use hardware description languages to define the behavior of the circuits and then implement these designs using computer aided design tools. This course may be useful for an FPGA Developer, as they will discover FPGA fundamentals such as programmable logic devices. The content also covers introduction to Verilog programming including Verilog features, design styles, and syntax basics.

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ASIC Designer

An Application Specific Integrated Circuit Designer creates custom integrated circuits for specific applications. This role demands expertise in digital and analog circuit design, hardware description languages, and electronic design automation tools. This course provides an end-to-end understanding of VLSI design concepts, from MOSFET operations to Verilog programming techniques. It may assist ASIC Designers to design combinational and sequential circuits. It also explores advanced Verilog topics, such as looping statements, blocking and non-blocking assignments, and RTL design examples.

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Embedded Systems Engineer

An Embedded Systems Engineer designs, develops, and tests embedded systems, which are computer systems integrated into devices for specific control functions. This course provides skills development in Verilog programming, which is crucial for writing code for embedded systems. Also, the knowledge of digital design principles and hands-on experience with Verilog helps Embedded Systems Engineers tackle real-world challenges in electronics and embedded systems.

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Hardware Validation Engineer

A Hardware Validation Engineer focuses on validating and testing hardware designs to ensure they meet functional and performance requirements. This involves developing test plans, executing tests, and analyzing results to identify and resolve issues. This course may be useful for Hardware Validation Engineers, as they will have covered digital logic design, including combinational and sequential circuits. Also, the course teaches the use of FSMs to detect sequences.

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Product Engineer

A Product Engineer is responsible for taking a product from design to production, focusing on manufacturing processes, yield optimization, and cost reduction. The knowledge of MOSFET operations with VLSI will help Product Engineers in understanding the product development process. Also, the course covers methodologies for VLSI design and chip development which makes product engineers take right decisions while planning a product.

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Computer Architect

Computer Architects design the structure and behavior of computer systems, from individual components to entire systems. Their work involves understanding the interaction between hardware and software, and optimizing performance, power consumption, and cost. This course could be useful for Computer Architects, as they will gain insights into the principles, design methodologies, and practical applications of VLSI systems. Also, the course provides knowledge from MOSFET operations to advanced Verilog programming techniques.

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Semiconductor Process Engineer

A Semiconductor Process Engineer develops and improves the manufacturing processes used to create semiconductor devices. This role involves optimizing process parameters, troubleshooting manufacturing issues, and ensuring quality control. This course may be useful for Semiconductor Process Engineers in gaining an understanding of the fundamentals of VLSI and MOSFET operations. It may also help explore VLSI design domains, including logic design, analog design, design verification, and physical design.

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Firmware Engineer

Firmware Engineers develop software that controls hardware devices, often working closely with hardware engineers to ensure proper integration. This course may be useful to Firmware Engineers as the course will touch upon Verilog features, design styles, syntax basics. It may also help the engineer explore advanced Verilog topics, such as looping statements, blocking and non-blocking assignments, and RTL design examples.

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CAD Engineer

A CAD Engineer develops and supports computer-aided design tools used for designing integrated circuits. CAD Engineers work on improving the efficiency and accuracy of these tools, as well as creating new tools to address emerging challenges. This course may be useful for CAD Engineers as it covers diverse topics, including logic design, analog design, design verification, and physical design. Also, the course content covers practical methodologies for VLSI design and chip development.

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VLSI Design and Verilog Programming

From Basics to Advanced

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