RTL Design using Verilog HDL

"Kickstart your VLSI journey with hands-on RTL design techniques and real-world project experience."

Course Features

Introduction to Verilog HDL

Basics of Hardware Description Languages (HDL)

Applications of Verilog in Digital Design

Syntax and Language Fundamentals

Data Types, Operators, and Expressions

Live Sessions: Covering theory and practical examples.

Assignments: For hands-on practice and learning.

Module 2 - Behavioral and Dataflow Modeling

Understanding Behavioral Constructs

Continuous Assignments in Dataflow Modeling

Procedural Statements (initial, always)

Blocking vs. Non-Blocking Assignments

Real-world coding examples and simulation labs

Module 3 - Combinational and Sequential Circuit Design

Adders, Subtractors, Multiplexers, Decoders, Encoders

Flip-Flops (SR, JK, D, T)

Counters (Asynchronous and Synchronous)

Shift Registers

Hands-on labs and simulation waveform analysis

Module 4 - Finite State Machines (FSMs)

Design of FSMs: Moore and Mealy Machines

FSM Applications in Digital Design

Coding and Verification of FSMs

Practical examples: vending machines, sequence detectors

Module 5 - Advanced Verilog Techniques

Compiler Directives for Code Abstraction

System Tasks and Functions for Debugging

Algorithmic Behavioral Coding

Verification Constructs in Verilog

Module 6 - Testbench Development

Writing Testbenches for Verilog Designs

Understanding Simulation Cycles and Timing

Generating Stimulus for Circuits

Debugging and Verification Techniques

Projects & Protocols

Projects and Protocols

Minor Projects

Traffic Light Controller:
Design of a traffic signal control system using FSMs.
Implementation of timing logic and state transitions.
Verification using a Verilog testbench.
Digital Clock:
Design of a clock with hour, minute, and second counters.
Implementation of time update logic with flip-flops.
Simulation and verification of the digital clock functionality.
UART Protocol:
Overview of UART: Applications and Functional Blocks
Transmitter Design: Data Framing and Baud Rate Generator
Receiver Design: Data Sampling and Decoding
Outcome: Full RTL implementation and verification of UART protocol.
MIPS Processor Design:
MIPS Processor Overview: Architecture and Datapath Design
Control Unit Design: FSM-Based Control Logic
Integration of ALU, Registers, and Memory
Outcome: Complete RTL design, simulation, and testbench verification.

Course Outcomes

Fundamental Understanding

Students will gain a thorough understanding of fundamental digital logic concepts including number systems, Boolean algebra, and logic gate implementations.

Circuit Design & Analysis

Students will be able to design and analyze both combinational and sequential circuits using modern digital design methodologies.

Finite State Machines

Students will develop the skills to create Finite State Machines (FSMs) and apply them to solve complex real-world problems.

Timing & Signal Integrity

Students will understand timing constraints and signal integrity issues in digital circuits, including techniques for mitigation.

Industry Preparedness

Students will be well-prepared for technical interviews and challenges in digital logic design positions.

Additional Features

Mock Tests

Regular assessment tests to prepare you for real-world challenges and interviews.

Hands-On Assignments

Practical assignments that reinforce theoretical concepts through application.

Live Interactive Sessions

Weekly live Q&A sessions with industry experts and instructors.

Project-Based Learning

Build portfolio-ready projects that demonstrate your skills to employers.

System on Chip Design

Introduction to System on Chip Design

SOC Verification vs IP Verification

Verification approaches at Industry level

Pre silicon vs Post silicon Verification

Verification vs Validation