Learn to design digital logic in Verilog like a Pro

What you'll learn
Learn basic and advanced concepts in Verilog
Learn digital design basics to get started with digital design
Example designs with complete code explanations (FSM, barrel shifter, counters, flops, sync-async resets)
Understand how to write testbenches

Requirements
Digital design basics and fundamentals of VLSI

Description
Day1: Introduction, Datatypes & Operators
Day1: Theory
Introduction
Verilog Basics – Verilog Design Styles
Verilog Basics – Dataflow Design
Verilog Basics – Behavioral Design
Verilog Basics – Structural Design
Verilog Basics – 1 bit full adder design with multiple design styles
Verilog Basics – Verilog Testbench
Designing Combinational Logic – 4 Valued Logic
Designing Combinational Logic – Number represenation
Designing Combinational Logic – Bit & Bus
Designing Combinational Logic – Naming conventions
Designing Combinational Logic – Bitwise operators
Designing Combinational Logic – Arithmatic operators
Designing Combinational Logic – Logical operators
Designing Combinational Logic – Relational operators
Designing Combinational Logic – Reduction Operators
Designing Combinational Logic – Shift Operators
Designing Combinational Logic – Concatenation operators
Designing Combinational Logic – Repetition operators
Designing Combinational Logic – Conditional operators
Day1: Labs
Getting started with edaplayground
Dataflow based Design and Testbench for one bit half adder in Verilog
Behavioral Design and Testbench for one bit half adder in Verilog
Structural Design and Testbench for one bit half adder in Verilog
Dataflow based Design and Testbench for one bit full adder in Verilog
Behavioral Design and Testbench for one bit full adder in Verilog
Structural Design and Testbench for one bit full adder in Verilog
Verilog code which shows usage of all operators with $display or $monitor statements
Create a verilog task for conversion of Celsius into Fahrenheit (°C to °F)
Getting started with edaplayground
Dataflow based Design and Testbench for one bit half adder in Verilog
Behavioral Design and Testbench for one bit half adder in Verilog
Structural Design and Testbench for one bit half adder in Verilog
Dataflow based Design and Testbench for one bit full adder in Verilog
Behavioral Design and Testbench for one bit full adder in Verilog
Structural Design and Testbench for one bit full adder in Verilog
Verilog code which shows usage of all operators with $display or $monitor statements
Create a verilog function for conversion of Celsius into Fahrenheit (°C to °F)
Day2: Combinational Logic
Day2: Theory
4 bit full adder design with testbench
2:1 and 4:1 multiplexer design
2x4,3x8,4x2 encoder and priority encoder design
4-bit Comparator Design
8-bit Barrel Shifter (Combinational Left & Right)
Designing Arithmetic & Logic Unit (ALU)
Day2: Labs
Dataflow based Design and Testbench for 4 bit full adder in Verilog
Design and Testbench for 2:1 Mux in Verilog
Design and Testbench for 4:1 Mux in Verilog
Design and Testbench 2x4 Decoder in Verilog
Design and Testbench 4x2 Encoder in Verilog
Design and Testbench 4x2 Priority Encoder in Verilog
Design and Testbench 4 bit comparator in Verilog
Design and Testbench 8 bit barrel shifter in Verilog
Design and Testbench ALU in Verilog
Day3: Sequential Design
Day3: Theory
Clock, D-Latch and a D-Flip Flop
D-Flip Flop vs D-Latch
D-Latch with Asynchronous Reset (Behavioral)
D-Flip Flop (Basic)
Positive Edge Triggered D-Flip Flop with Asynchronous Active High Reset
Negative Edge Triggered D-Flip Flop with Asynchronous Active High Reset
Positive Edge Triggered D-Flip Flop with Asynchronous Active Low Reset
Positive Edge Triggered D-Flip Flop with Asynchronous Active High Set
D-Flip Flop with Active High Synchronous Reset
D-Flip Flop with Active Low Synchronous Reset
D-Flip Flop with Reset and Synchronous Set
Synchronous and Asynchronous Reset Design
8-bit Twin Register Set
Day3: Labs
Design D-Latch in Verilog
Design D-Latch with Asynchronous Reset in Verilog
Design D-Flip Flop (Basic) in Verilog
Design Positive Edge Triggered D-Flip Flop with Asynchronous Active High Reset in Verilog
Design Negative Edge Triggered D-Flip Flop with Asynchronous Active High Reset in Verilog
Design Positive Edge Triggered D-Flip Flop with Asynchronous Active Low Reset in Verilog
Design Positive Edge Triggered D-Flip Flop with Asynchronous Active High Set in Verilog
Design D-Flip Flop with Active High Synchronous Reset in Verilog
Design D-Flip Flop with Active Low Synchronous Reset
Design D-Flip Flop with Synchronous Reset and Set
Synchronous and Asynchronous Reset Design
Design 8-bit Twin Register Set in Verilog
Day 4: Complex Sequential Logic and State Machines
Day4: Theory
Designing a 5-bit Left to Right Shift Register
Designing a 5-bit Universal Shift Register
Designing a basic counter
Writing a Test Bench for a Counter
Designing an Up Counter with Load Option
Designing an Up or Down Counter
Designing a Modulus Counter
Designing a Range Up Counter
Designing a Range Up or Down Counter with Load Option
Designing a Clock Frequency Divider (Divide by 2)
Designing a Clock Frequency Divider (Divide by 4)
Designing a Clock Frequency Divider (Divide by 3)
Designing a Single Clock First In First Out (FIFO)
Designing a Dual Clock First In First Out (FIFO)
Memory Array Options and Definitions
Single Port Ram
Dual Port Ram
True Dual Port Ram
Mealy vs Moore Machine
Mealy – 101 Non-Overlapping Sequence Detector
Mealy – 101 Overlapping Sequence Detector
Moore – 101 Non-Overlapping Sequence Detector
Moore – 101 Overlapping Sequence Detector
Misc.
Day4: Labs
Design a 5-bit Left to Right Shift Register in Verilog
Designing a 5-bit Universal Shift Register in Verilog
Designing a basic counter in Verilog
Writing a Test Bench for a Counter in Verilog
Designing an Up Counter with Load Option and Testbench in Verilog
Designing an Up or Down Counter with testbench in Verilog
Designing a Modulus Counter with testbench in Verilog
Designing a Range Up Counter with testbench in Verilog
Designing a Range Up or Down Counter with Load Option with testbenc in Verilog
Designing a Clock Frequency Divider (Divide by 2) in Verilog
Designing a Clock Frequency Divider (Divide by 4) in Verilog
Designing a Clock Frequency Divider (Divide by 3) in Verilog
Designing a Single Clock First In First Out (FIFO) in Verilog
Designing a Dual Clock First In First Out (FIFO) in Verilog
Mealy – 101 Non-Overlapping Sequence Detector with testbench in Verilog
Mealy – 101 Overlapping Sequence Detector with testbench in Verilog
Moore – 101 Non-Overlapping Sequence Detector with testbench in Verilog
Moore – 101 Overlapping Sequence Detector with testbench in Verilog

Who this course is for
College ECE graduates, People looking to enter into semiconductor digital design, ASIC and FPGA freshers, Professionals planning to change field to digital design