Frontend Design Verification

The design abstraction of a digital circuit is a logical construct which models a digital circuit in terms of the flow of digital signals (data) between hardware registers, and the logical operations performed on those signals. The model is commonly called a register transfer level (RTL) design. In order to test a circuit, the RTL must be verified for every feature.

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hour

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Highly rated on Google

4.9/5

Course Duration

5 months

Learning Mode

Offline

Placement Assistance

100%

Career prospects in Design Verification

Verification of design is one of the most complicated tasks in today’s design cycle due to the complexity of the design. Approximately, 50-80% of the project time goes into verification of the design.

Eligibility Criteria

B.TECH/B.E in Electrical Instrumentation

M.TECH in VLSI

B.Tech/B.E in Electronics and Communication(EEE)

B.Tech/B.E in Electrical and Electronics

Skills you will gain

SV

System Verilog

SOC

UVM

What you will learn

Verilog

Introduction

what are the drawbacks of the Higher Level Language
Why Hardware Descritor Language HDL ?

Basic Language Concepts

Module introdcution
Structure of modules
What is 2 state and 4 state variables
Different data types
Differnet ways of mentioing comments
Verilog Number specification
Parameters and Parameter overriding
Module instances
proceddural statements
Connectivity in verilog
Port assignments
Different level of abstractions
Generate statemntes

Advance Verilog Conepts

Delays in verilog
Introdcution to Verilog Test Bench
Blocking and non-Blocking assingmnet
Sequental circuit implementation in verilog
Procedural and concurrent assignments
system tasks
Verilog scheduling
Race condition in verilog

Verilog IEEE coding Rules

why all the codes can’t be used for ASIC design
why to follow the IEEE standard in coding ?

Modeling FSM in verilog

How to design the system using Moore and Melay Machines
Difference between Moore and Melay machine
States in FSM coding
RTL coding using Melay and
Moore machines using different technique
Developing the TB for FSM RTL

System Verilog

Data Types

Built-In Data Types
Fixed-Size Arrays
Dynamic Arrays
Queues
Associative Arrays
Array Methods
Packages
Streaming Operators
Enumerated Types
Strings
Constant

Procedural statements and Routines

Tasks, Functions, and Void Functions
Task and Function Overview
Routine Arguments
Local Data Storage
Time Values

Connecting TB and Design

Separating the Testbench and Design
The Interface Construct
Stimulus Timing

BASIC OOPS

Creating New Objects
Separating the Declaration and Construction
Getting a Handle on Objects
Defining Methods Outside of the Class
Static Variables vs. Global Variables
Scoping Rules
Understanding Dynamic Objects
Copying Objects

Randomization

What to Randomize
Randomization in SystemVerilog
Constraint Details
Controlling Multiple Constraint Blocks
Implication and Bidirectional Constraints
Valid Constraints
In-Line Constraints
The pre-randomize and post-randomize Functions
Note on Void Functions
Turn Constraints Off and On
Checking Values Using Constraints
Common Randomization Problems
Iterative and Array Constraints
Random Control

Threads and Interprocess Communication

Using fork join and begin end
Spawning Threads with fork join none
Synchronizing Threads with fork join any
Creating Threads in a Class
Dynamic Threads
Waiting for all Spawned Threads
Disabling Threads
Interprocess Communication
Events
Semaphores
Mailboxes
Building a Testbench with
Threads and IPC

Advanced OOPS

Introduction to Inheritance
Downcasting and Virtual Methods
Composition, Inheritance, and Alternatives
Copying an Object
Abstract Classes and Pure Virtual
Methods
Callbacks
Parameterized Classes
Static and Singleton Classes

Functional Coverage

Coverage Types
Functional Coverage Strategies
Simple Functional Coverage
Anatomy of a Cover Group
Triggering a Cover Group
User-Defined Bins
Default Bins
Wildcard Bins
cross coverage
Ignore and Illegal Bins

Advanced Interface

Introductionto interface

Need of interface

Parameterized Interfaces and Virtual Interfaces

Advantes and need of interface

Assertions

Need of assertion

Immediate assertion

Concurrent assertion

Cycle delays in assertion

How to write the assertions for APB protocol

UVM

Why Methodology

Understanding the drawback of SV
Evolution of Methodology
UVM evolution
Benefits of using UVM

UVM Evolution

UVM class Hierarchy
UVM Transaction Data Sequence Item, Sequence, Virtual Sequence
UVM Testbench component – Driver, Sequencer, Monitor, Agent, Virtual sequencer, Envirnoment, Test
UVM Message format
UVM message Verbosity
TLM Communication – How TLM are used to communicate between components
TLM Analysis port
TLM terminology Put, get, tlm_fifo

UVM FACTORY

What are the factories can generate
How do you use the factory
How to register the components Types with the factory
UVM Factory override – set type override by type and set inst override bytype
How configuration data base is used
Raising and dropping the objection
How to create the components using the create method

UVM_PHASES

What is the need of phases in factory
Common UVM Phases

UVM Sequences

What are objects, what is difference between objects and components
How to write the sequences
Running the sequences on sequencers
Strcuture of the sequence
Virtual sequences

UVM Sequencer

What is a Sequencers
How driver and sequencer commuicate using TLM
Flow control Driver – Sequencer- Sequence
Virtual sequencers

UVM Envirnoment building

How to create the different components
Connecting the differtent components
How to create the agent and envirnoment
How to use the env in the test case
Starting the sequence on sequencers

AMBA Protocols

Protocol

APB protocol 3 Hours
AHB protocol 8 Hours
AXI protocol 12 Hours