What is the RTL Design and Verification Course? Exams, Syllabus, Fee Structure, Placements & More

Course Overview:

The RTL Design and Verification course is a specialized program focusing on Register Transfer Level (RTL) design, which is a critical aspect of digital circuit design. This RTL Design training covers the principles and techniques used in designing and verifying digital systems, preparing students for careers in VLSI and semiconductor industries. Electrical and Electronics students should consider this RTL Design course as it offers comprehensive knowledge in hardware description languages, simulation, and synthesis. The RTL Design and Verification course provides hands-on experience with industry-standard tools and methodologies, making graduates highly competitive in the job market. Furthermore, the skills acquired in the RTL course are crucial for roles in designing complex digital circuits and systems, ensuring students are well-prepared for future technological advancements. Embracing an RTL Design and Verification course can significantly enhance an electrical engineering student's career prospects and technical expertise.

 

Learning Objectives:

The RTL Design and Verification course aims to equip students with essential skills for designing and verifying digital circuits. Key learning objectives include mastering hardware description languages like Verilog and VHDL, which are crucial for any rtl design course. Students will learn to create and simulate RTL models, ensuring they understand the entire design flow from specification to implementation. The course also covers verification methodologies, enabling students to verify the correctness and performance of digital designs. Hands-on experience with industry-standard tools is a significant aspect, providing practical knowledge that enhances job readiness. Electrical engineering students should consider this rtl design course because it bridges theoretical concepts with real-world applications, preparing them for careers in VLSI, ASIC, and FPGA design. By the end of the rtl design course, students will have a solid foundation in digital design principles and verification techniques, making them valuable assets to technology companies.

 

Course Modules and Format:

An RTL Design and verification training course provides comprehensive education in digital circuit design using hardware description languages like Verilog and VHDL. It includes hands-on labs with industry-standard tools and emphasizes practical application through projects. This format ensures students gain proficiency in synthesis, simulation, and verification methodologies essential for careers in VLSI, ASIC, and FPGA design. Choosing an RTL Design and verification training program equips electrical engineering students with crucial skills and flexibility, enhancing their readiness for the semiconductor industry's demands.

·         Total Duration of the Course: Typically ranges from several weeks to a few months, depending on the depth of the curriculum.

·         Mode of Delivery: Offers flexibility with online, in-person, and hybrid options to accommodate different learning preferences.

·         Schedule of Classes or Sessions: Classes are structured to include regular sessions, often scheduled in evenings or weekends to suit working professionals.

 

Target Audience:

The RTL Design and verification certification targets individuals interested in mastering hardware description languages like Verilog and VHDL, essential for digital circuit design. It caters to those aiming to gain hands-on experience with industry-standard tools and methodologies such as simulation and synthesis. This certification is beneficial for professionals aiming to advance their careers in the semiconductor industry, providing a competitive edge in roles requiring expertise in RTL design and verification.

• Electrical & Electronics Engineering Students: Ideal for undergraduates or graduates seeking specialization in digital circuit design.
• Professionals in Semiconductor Industry: Engineers looking to enhance their skills in RTL design and verification.
• Career Switchers: Individuals transitioning to roles in VLSI, ASIC, or FPGA design.
• Technical Managers: Seeking to understand the latest trends and methodologies in digital design.

 

Instructors:

The instructors for the RTL Design and verification class bring a blend of practical experience and academic rigor to the course. Their expertise enhances learning by offering insights into real-world applications and preparing students for challenges in digital circuit design. With their guidance, students gain valuable skills in hardware description languages and verification techniques, crucial for success in the semiconductor field.

 

Our Instructors are:

• Experienced professionals in VLSI and semiconductor industries.
• Professors specializing in RTL design and verification methodologies.
• Instructors with real-world RTL design project experience.
• Skilled in industry-standard simulation and synthesis tools.
• Provide personalized student support and mentoring.

 

Course Duration and Format:

An RTL Design Online Course offers convenience for electrical engineering students, and electronics engineering students allowing them to learn at their own pace and from anywhere. The course structure ensures comprehensive coverage of hardware description languages like Verilog and VHDL, essential for digital circuit design. Students benefit from interactive sessions and hands-on labs using industry-standard tools, preparing them for roles in VLSI, ASIC, and FPGA design. This format also facilitates networking with peers and instructors, enhancing the learning experience and providing practical insights into current industry practices. Considering an RTL Design Verification Training equips students with in-demand skills and flexibility, crucial for advancing their careers in the semiconductor industry.

• Total Duration: Typically spans several weeks to a few months.
• Mode of Delivery: Available online for flexibility and accessibility.
• Schedule: Classes scheduled regularly with flexible timing options.

Enrollment Information:

Enrolling in an RTL Design & Verification training and placement program provides essential skills for electrical engineering students aiming to excel in digital circuit design. This course prepares them for lucrative careers in VLSI, ASIC, and FPGA design by focusing on hardware description languages like Verilog and VHDL. The curriculum includes hands-on projects with industry-standard tools and emphasizes verification methodologies such as UVM. Graduates benefit from career placement assistance, ensuring they are well-equipped for industry demands. Choosing an RTL Design & Verification training and placement program offers a structured path to acquiring in-demand skills and securing rewarding positions in the semiconductor industry.

 

How to Enroll: Fill out an online application form on the course website.

Fees and Payment Options: Details available on the website, including installment plans.

Important Dates: Registration deadlines and start dates clearly specified.

 

Exams Related to RTL Design and Verification:

Many institutions offer RTL design online courses, making it accessible for professionals to gain knowledge and certification from anywhere. These courses typically cover digital logic design, RTL coding, simulation, synthesis, and verification methodologies like UVM. Certifications play a critical role in demonstrating proficiency in RTL design and verification. Key exams include:

1. IEEE Certified VLSI Professional (CVP)
2. Accellera UVM Certification
3. Cadence Training and Certification
4. Synopsys Certified Professional
5. Mentor Graphics Certification

 

Syllabus:

Introduction

• Semiconductor ecosystem
• VLSI design cycle - front end design flow & backend design flow
• What is ASIC & FPGA
• FPGA design flow & ASIC design and verification flow
• SoC example and industry updates
• Opportunities for VLSI engineers in India
• VLSI industry work profiles and roles
• How to be industry ready?

Digital Design

• Digital system design & applications
• Introduction
• What is digital & analog
• Introduction to digital system design
• Elements of digital logic, number system
• Code conversion, logic gates, K-maps, Boolean algebra, SOP, POS
• BCD, excess-3, gray code, ASCII, complements
• Combinational logic design: adders, subtractors, multipliers, dividers, comparators, multiplexing, demultiplexing, encoders, decoders, parity, checkers, data path, control path, ALU
• Sequential logic design: synchronous logic design, asynchronous logic design
• Latches
• Flip-flops
• Counters (asynchronous, synchronous, mod, Johnson, ring)
• Registers (SISO, SIPO, PISO, PIPO, USR, LFSR)
• FSM (Mealy and Moore – overlapping and non-overlapping)
• FIFO (asynchronous, synchronous)
• Memories (RAM, ROM)

Verilog:

• Introduction & Importance of HDL - HDL vs High Level Languages.
• Basic Language elements
• Design Methodologies - Top Down, Bottom Up
• Verilog data types
• Verilog Modelling Styles:

• Dataflow Modelling – continuous assignment statements
• Gate Level Modelling/Structural modelling
• Behavioural Modelling – Procedural blocks, procedural block statements – blocking and non-blocking assignments.
• Switch Level Modelling – switch primitives
• System Tasks
• Logic Gates, Half Adder, Full Adder, Half subtractor, Full subtractor.
• Multiplexer – 2:1, 4:1, 8:1 and other mux-oriented problems.
• Logic gates using Mux, Encoder, Decoder, Priority Encoder
• Stratified Event Queue or Timing Regions In-depth explanation with examples.
• Comparator, Seven Segment, Multipliers
• Combinational Circuits to be taught in Behavioral (IF, CASE) and Gate level
• Adders – RCA, Carry Look ahead adder, ALU, Subtractor, Division Circuits
• Sequential Circuits:
• Latch – Definition, usage, types, Coding and Simulation Result Explanation.
• Flipflop – Types (dff, tff, jkff), Coding and Simulation Result Explanation, Sync and Async FF. Difference between Latch and Flipflop, Why Nonblocking should be used for Sequential Circuits?
• Counter - Both Synchronous and Asynchronous, Mod Counters, Repeated Counters, Ring, Johnson Counters.
• FSM – Melay and Moore, Timescale, Parameter, Local Param, ifdef
• Shift registers – SISO,PISO,PIPO,PISO, Bi-directional Registers, Universal Shift Registers
• MEMORIES – RAM, ROM, Frequency Dividers, Self-checking testbenches.
• Define, setup, hold time, Types of delays to be used in coding. – Inter,Intra,Gate
• Sequential and Parallel execution blocks, generate blocks, Primitives - Try
• Randomization based testbenches, Task oriented TB.
• Synthesizable vs Non-Synthesizable Constructs explanation with examples, Loops.
• Race conditions in Verilog with Live examples

System Verilog:

• ASIC Verification:

• Introduction & Importance
• Verification Methodologies
• System Verilog: Introduction to Verification and System Verilog.
• Data Types:
• Integer, Void
• String, Event
• User-defined Enumerations
• Class Arrays
• Fixed Size Arrays - Packed and Un-Packed
• Dynamic Array - Associative Array, Queues, structure, Union, typedef
• Procedural Statements and Flow Control:
• always_ff, always_comb, Blocking & Non-Blocking assignments
• Unique-I, Priority-If
• While, do-while, for each & enhanced for loop
• Repeat, Forever
• Break & Continue
• Named Blocks and Statement Labels
• Disable block and disable statements
• Event Control.
• Tasks and Functions:
• Tasks
• Functions
• Argument passing – Automatic, Static
• Processes:
• fork-join
• fork-join any
• fork-join none
• wait-fork
• disable-fork
• Classes:
• Classes
• This Keyword
• Constructors
• Static Class Properties & Methods
• Class Assignment
• Shallow Copy & Deep Copy
• Parameterized Classes
• Inheritance
• Overriding Class Members
• Super Keyword
• Polymorphism, Casting
• Data Hiding and Encapsulation
• Abstract Classes & Virtual Methods
• Class Scope Resolution Operator
• Extern methods
• Type def Classes.
• Randomization & Constraints:
• Constraint Blocks
• External Constraint Blocks
• Inheritance
• Inside operator
• Weighted distribution
• Implication and if-else and other constructs.
• IPCSemaphore - Mailbox - Event:
• Scheduling Semantics
• Program Block
• Interface
• Mod port
• Clocking Blocks.
• Assertion:
• Assertions
• SVA Building Blocks
• SVA Sequence
• Implication Operator
• Repetition Operator
• SVA Built in Methods
• Ended and Disable iff.
• Coverage:
• Coverage
• Functional Coverage – Types
• Coverage Options - Parameters and define.
• Project on System Verilog on Industry Standard Protocol with assertions and coverage along with tool explanation.

Universal Verification Methodology:

• INTRODUCTION

• What is UVM?
• Why UVM?
• Overview of UVM Structure.
• UVM Testbench Architecture
• Test Bench Structure
• Explanation of Test Bench
• UVM Objects and UVM Components
• UVM Sequence Item
• UVM Sequence and UVM Sequencer
• UVM Driver and UVM Monitor
• UVM Agent and UVM Scoreboard
• UVM Test and UVM Top.
• UVM Phases
• Types of Phases
• Explanation of Phases
• UVM TLM
• Analysis Port
• Usage of TLM Ports
• Declaration and Connection of Ports
• Register Layer
• Introduction
• Register Model
• Register Environment
• Connection of Register Environment
• UVM Reporting
• Reporting Methods
• Configurations
• Usecases
• UVM Configurations
• Usage of Configurations
• Set Config Methods
• UVM Factory
• Registration
• Factory Methods Explanation
• UVM Callback
• Body Call back
• Usage and Importance of Call Backs
• Lock Grab
• Examples
• Arbitration
• Importance of Arbitration
• Usage of Arbitration
• Sequencer Arbitration
• Virtual Sequence, Sequencer
• Need and Usage of Virtual Sequence and Sequencer.
• Sequential and Parallel Sequence, Layered Sequences
• Overview and Implementation of Sequences.
• UVM MACROS
• Macros Explanation in UVM.
• UVM Project
• UVC Development for Industry standard protocol.
• Explanation of IP, VIP, SOC Level Testbench flow, Testplans, Verification plan.

Projects

Students will work on some of the below Design and Verification projects as part of training project. APB, AHB, AXI, SPI , UART, I2C, MEMORY CONTTROLLER, USB, UTMI, PCIE, ETHERNET, AES. Linux Operation System, Vim EditFees Structure:

The RTL (Register Transfer Level) Design and Verification training is a specialized program within VLSI (Very-Large-Scale Integration) design, crucial for creating and verifying digital circuits to ensure their functionality and efficiency. This course trains students in using hardware description languages such as VHDL and Verilog to design, implement, and verify digital circuits.

Fees Structure

In India, the fees for RTL Design and Verification courses vary widely depending on the institution and the course's duration and depth. Typically, these courses are offered by renowned institutes and private training centers across major cities like Bangalore, Hyderabad, and Pune. The fee structure ranges from INR 50,000 to INR 2,00,000 for comprehensive programs covering RTL coding, simulation, synthesis, and verification methodologies.

Pay After Placement RTL Design & Verification Training:

Some institutes offer innovative payment models like "Pay After Placement," where students can enroll in the course without upfront fees. Instead, they pay the tuition fees only after securing a job in the field. This model aims to reduce financial barriers and ensure that students receive quality training aligned with industry needs.

Placements:

Completing RTL (Register Transfer Level) Design & Verification training opens doors to promising career opportunities in the semiconductor industry. This specialized course equips graduates with the skills necessary to design and verify complex digital circuits using VHDL and Verilog, essential in the field of VLSI (Very-Large-Scale Integration).

Career Opportunities

Graduates of RTL Design & Verification courses find themselves in demand for various roles:

1. RTL Design Engineer: Responsible for translating high-level design specifications into RTL code and ensuring functionality meets specifications.
2. Verification Engineer: Focuses on developing and executing test plans to verify the correctness of RTL designs, ensuring robust performance and functionality.
3. FPGA Designer: Designs and implements FPGA (Field-Programmable Gate Array) solutions based on RTL designs, optimizing performance and power consumption.

Placement Scenario

Top semiconductor companies like Intel, AMD, NVIDIA, and Qualcomm actively recruit RTL Design & Verification engineers. These companies offer competitive salaries and comprehensive benefits, making them attractive employers in the tech industry.

FAQs:

1.What is RTL design? 

RTL (Register Transfer Level) design focuses on describing digital circuits using hardware description languages.

2.Why should electrical engineering students consider this RTL training?

 It prepares them for careers in VLSI, ASIC, and FPGA design, essential in the semiconductor industry.

3.What are the key skills taught in the RTL certification? 

Hardware description languages (Verilog, VHDL), synthesis, simulation, and verification methodologies like UVM.

4.Is the training available online? 

Yes, it offers flexibility for students to learn at their own pace.

5.Are there practical projects included? 

Yes, students gain hands-on experience with industry-standard tools and real-world applications.

6.What are the career prospects after completing the RTL course? 

Graduates can secure roles in digital circuit design with opportunities for growth in semiconductor companies.

7.Is there placement assured? 

Yes, programs like 'pay after placement RTL Design & Verification training' ensure students are placed in relevant positions.

8.What are the enrollment requirements? 

Typically, a background in electrical engineering or related fields is recommended.

9.Are there payment options available? 

Yes, installment plans and 'pay after placement' options may be offered for financial flexibility.

10.How can I learn more about the RTL training? 

Visit the course website for detailed information on curriculum, faculty, and enrollment procedures.