verilog For Design & language

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verilog For Design & language

About Course

The Verilog HDL course is a comprehensive, industry-oriented training program designed to build strong fundamentals and practical expertise in RTL Design and Digital VLSI Design. This course is structured according to current semiconductor industry requirements and is ideal for freshers, final-year students, and working professionals who want to start or transition into the VLSI domain.

The program covers Verilog HDL from basic syntax to advanced RTL implementation concepts used in ASIC and FPGA design flows. Students gain hands-on experience in RTL coding, simulation, debugging, and synthesis concepts through real-time practical examples and mini-projects.

This course focuses on developing strong RTL design skills required for careers such as RTL Design Engineer, FPGA Design Engineer, ASIC Design Engineer, and Digital Design Engineer.


What This Course Covers

The training starts with digital electronics fundamentals and gradually moves toward advanced RTL design methodologies and industry-standard coding practices.

  • Introduction to Digital Design & HDL Concepts
  • Verilog HDL syntax and structure
  • Modules, ports, and hierarchical design
  • Data types, operators, and expressions
  • Procedural blocks (always, initial)
  • Blocking and non-blocking assignments
  • Conditional and looping statements
  • Tasks and functions
  • Combinational logic design
  • Sequential logic design
  • Flip-flops, counters, and shift registers
  • Multiplexers, encoders, and decoders
  • Finite State Machine (FSM) design
  • Mealy and Moore FSM implementation
  • Behavioral, Dataflow, and Structural modeling
  • Parameterized design concepts
  • RTL coding guidelines and best practices
  • Simulation vs Synthesis understanding
  • Logic synthesis fundamentals
  • Clock Domain Crossing (CDC) basics
  • Static Timing Analysis (STA) overview

Students implement multiple RTL designs from scratch and simulate them to understand practical hardware behavior and debugging methodologies.


Practical Learning Approach

The course includes theory sessions along with extensive hands-on RTL coding and simulation practice. Every concept is supported with practical implementation exercises.

  • Write RTL code from scratch
  • Design combinational and sequential circuits
  • Develop and simulate Verilog testbenches
  • Analyze simulation waveforms
  • Debug RTL design issues
  • Understand synthesis considerations
  • Work on mini RTL design projects

Regular lab sessions are conducted to ensure concept clarity and implementation confidence.


Special Focus for Freshers

  • Verilog basics for beginners
  • Digital logic design for VLSI
  • Learn Verilog with practical examples
  • RTL coding interview preparation
  • Simulation and waveform understanding
  • FSM design methodology
  • Step-by-step RTL coding approach

This helps freshers build strong fundamentals required to crack entry-level VLSI and RTL Design interviews.


Advanced Industry-Oriented Coverage

  • FPGA design flow overview
  • ASIC design flow basics
  • RTL optimization concepts
  • Clock Domain Crossing (CDC) basics
  • Low power design awareness
  • Protocol interface awareness
  • RTL debugging methodologies
  • EDA tool flow understanding
  • Introduction to scripting awareness
  • AI-assisted RTL design trends overview

Flexible training modes are available including classroom training, live online sessions, weekend batches, fast-track options, and self-paced learning.


Who Should Enroll

  • ECE / EEE / Electronics graduates
  • Final year engineering students
  • Freshers seeking VLSI core jobs
  • Engineers interested in RTL Design
  • FPGA and ASIC design aspirants
  • Professionals upgrading Digital Design skills

Career Opportunities After Completion

  • RTL Design Engineer
  • FPGA Design Engineer
  • ASIC Design Engineer
  • Digital Design Engineer
  • Hardware Design Engineer

The course prepares candidates with strong theoretical knowledge and practical RTL coding experience required in semiconductor and VLSI industries.

Unit NumberTopicDuration(Mins)
1overview of verilog language4
2gvim for verilog coding44
3Verilog language evolution36
4verilog language evolution29
5implementing combinational logic using verilog61
6implementing combinational logic using verilog59
7implementing combinational logic using verilog86
8introduction to verilog language constructs79
9introduction to verilog language constructs77
10introduction to verilog language constructs31
11encoders continue47
12encoders continue16
13demux concepts12
14Verilog language litrels(vector,integer,real,datatypes)31
15verilog language litrels(vector,integer,real,datatypes)continue77
16Verilog Language75
17vector assignments82
18vector assignments(continue)28
19datatypes53
20arrays93
21arrays92
22arrays(continue)51
23sting and event26
24unique array45
25heirarical modeling30
26heirarical modeling(continue)86
27heirarical modeling(continue)15
28task and functions73
29task and functions(continue)52
30operators30
31operators(continue)92
32operators(continue)44
33verilog code(execution styles) (fork join)28
34dataflow modeling9
35structural modeling21
36behavioral style of coding58
37behavioral style of coding continue43
38Blocking and non blocking76
39synthesis examples7
40synthesis examples(continue)6
41procedural statements45
42casez and casez23
43timescale10
44prime number logic16
45timescale(continue)21
46inter delay and intra delay23
47system task and system function24
48system task and system function(continue)66
49complier directives7
50complier directives(continue)85
Curriculum

How Verilog differs from other programming languages?
Verilog language concepts
Registers, nets
Vectors, Array
Memories
Data types
Operators
Various styles of Modeling: Data Flow, Behavioral, Gate level, Switch level
Procedural Blocks
Continuous assignments
Procedural Statements
Generate
State Machines
Gate Level Implementation
Hierarchical modeling
Verilog Programming Interface(& PLI)
Pipelining
FSM : Mealy and Moore
FSM State encoding styles
Flipflop (Synchronous & Asynch Reset), Latch
Counter-Gray code counter, modulo, ring, johnson, up counter, down counter
Shift register implementation
Half adder, full adder, multiplexer

Benefits of eLearning?
  • Access to the Instructor - Ask questions to the Instructor who taught the course
  • Available 24/7 - VLSIGuru eLearning courses are available when and where you need them
  • Learn at Your Pace - VLSIGuru eLearning courses are self-paced, so you can proceed when you're ready
Course Instructor
  • Sreenivas Reddy — Founder, VLSIGuru
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Course Highlights

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TESTIMONIALS

What Our Students Says About Inskill

FAQ

  1. Course presentations for all topics
  2. Session notes
  3. Lab documents with detailed steps
  4. User guides

  1. No per-requisites. Good to know C language & exposure to Digital Design concepts

  1. Each aspect of course is supported by lot of practical examples
  2. Dedicated full day lab sessions to ensure student does complete testbench development from scratch

  1. Yes, You will have option to view the recorded videos of course for the sessions missed
  2. You will have option to repeat the course any time in next 1 year

  1. Yes, Course fee also includes support for doubt clarification sessions even after course completion
  2. You have option to mail you queries
  3. Option to meet in person to clarify doubts