Advanced Diploma in VLSI Design & Verification

( A Placement Oriented Program )

Design the Future. Engineer the Next Generation of Semiconductors.

100 % Placement Opportunities with
Dedicated Placement Assistance |Career Guidance | Hiring Opportunities.
| Hands-On Projects Industry | Recognised Certification
Duration: 3 months (ONLINE/OFFLINE)
Eligibility: BE, B.Tech, ME, M.Tech in ECE, EEE, E&I
(Graduate/Under Graduate /Working Professional)
VLSI Design & Verification Program
Program Introduction

Why choose this VLSI design & verification program?

Build job-ready skills for the semiconductor industry — core electronics, Verilog RTL, on-chip protocols, FPGA implementation and verification with SystemVerilog and UVM, backed by C++ and Linux fundamentals.

Complete front-end flow

Design → simulate → implement on FPGA → verify.

Industry verification skills

SystemVerilog and UVM, the core verification tools used by verification teams.

Hands-on FPGA hardware

Arty-7 FPGA and Zynq SoC boards with VIO and ILA debugging.

Industry-standard EDA tools

Vivado, QuestaSim and EDA Playground.

Protocol design expertise

UART, SPI, I²C and AMBA AXI-4.

Flexible learning mode

Online or offline training with hands-on digital academy learning.

Project-based learning

An RTL-to-verification project plus capstone projects.

Program outline

VLSI curriculum: 4 phases, 9 modules

Hardware Foundations → Programming Fundamentals → VLSI Design → VLSI Specialization

Phase 1

Electronics & Hardware Familiarization

The electronics behind every chip

Module 1

Core Electronics: Analog Circuits to Digital Logic Design

Understand analog and digital electronics — from transistors and CMOS to FSMs and timing.

Key topics
  • Ohm’s law, RC circuits and power-supply basics.
  • Diodes, rectifiers, Zener and clamping circuits.
  • BJT and MOSFET switching, amplification and CMOS.
  • Op-amps, filters and oscillators.
  • Number systems and Boolean algebra.
  • Logic gates, multiplexers, encoders and decoders.
  • Flip-flops, counters and shift registers.
  • Finite state machines.
  • Basics of timing analysis.
Phase 2

Core Programming Fundamentals

C, C++ and Linux

Module 2

Mastering C Programming (Self-Learning)

Build core C programming skills through self-paced learning.

Key topics
  • Simple C program structure.
  • Variables, operators, decision statements.
  • Arrays.
  • Sorting and searching.
  • Strings.
Module 3

Mastering OOP using C++ & Competitive Problem Solving

Write object-oriented C++ — the foundation for SystemVerilog classes and UVM testbenches.

Key topics
  • OOP concepts: class, object and namespaces.
  • Classes, objects, abstraction and encapsulation.
  • Access specifiers and the this pointer.
  • Constructors and destructors.
  • Friend and operator overloading.
  • Inheritance and runtime polymorphism.
  • Exception handling, templates and smart pointers.
  • Templates and STL.
  • Problem solving using HackerRank.
Module 4

Linux System Programming using C

Linux in action

Phase 3

VLSI Design

RTL, protocols and FPGA

Module 5

RTL Coding with Verilog

Write synthesizable Verilog for combinational and sequential logic, FSMs and testbench basics.

Key topics
  • HDL fundamentals, design methodology, data types and operators.
  • Gate-level modeling, procedural blocks and delays.
  • Dataflow modeling, continuous assignments and operators.
  • Combinational and sequential logic.
  • Behavioral modeling: always blocks, blocking vs non-blocking assignments.
  • if-else, case, loops, generate, wire, reg, forever and repeat.
  • Sequential and parallel blocks, fork-release and de-assign.
  • Functions, tasks and testbenches.
  • FSMs, counters and shift registers.
  • Functions, tasks and generate statements.
  • Verify and ModelSim/Questa simulation basics.
Module 6

On-Chip Protocols Design

Design and simulate the serial and on-chip bus protocols used in SoC design.

Key topics
  • Basic communication protocols.
  • UART.
  • I²C.
  • SPI.
  • AMBA architecture.
  • AXI4.
Module 7 · Project

FPGA Programming

Implement, debug and demonstrate digital designs on FPGA hardware.

Key topics
  • FPGA architecture: CLB, IO blocks, interconnects.
  • CPU vs FPGA: design flow and tools.
  • Configurable logic and LUTs on FPGA.
  • Up, down, up-down, Johnson and ring counters.
  • Shift registers and Mealy/Moore FSMs.
  • Debugging with VIO and ILA.
  • Project demonstration on FPGA.
Project: Digital Design Implementation — RTL to Realization
Phase 4

VLSI Specialization — Verification

SystemVerilog and UVM

Module 8

Design and Verification using SystemVerilog

Build class-based verification environments with coverage and assertions.

Key topics
  • Need for SystemVerilog; verification environment.
  • 2-state, 4-state, enum, string, struct, union and class types.
  • Dynamic, packed, unpacked and associative arrays.
  • fork-join, join_any, join_none and wait fork.
  • OOP: inheritance, polymorphism, data hiding, encapsulation.
  • Deep and shallow copy; static and virtual classes.
  • Functional and cross coverage.
  • Assertions with examples.
  • Building a complete verification environment.
Module 9

Verification using UVM

Build reusable, industry-standard UVM testbenches.

Key topics
  • Why UVM; UVM objects and base classes.
  • UVM macros and data-type methods.
  • UVM phases, config DB and objections.
  • TLM ports, analysis ports, FIFOs and sockets.
  • UVM callbacks.
  • UVM testbench components and reusable testbench.

Tools, software & hardware

Xilinx VivadoQuestaSimFPGA PlaygroundArty-7 FPGA BoardZynq SoC Board
Learner outcomes

What you’ll be able to do

1

Master digital fundamentals — CMOS, logic design, FSMs and timing basics.

2

Program in C and C++ — for OOP and competitive problem-solving for verification work.

3

Write RTL in Verilog — synthesizable combinational, sequential and FSM designs.

4

Design on-chip protocols — UART, SPI, I²C and AMBA controllers.

5

Implement on FPGA — synthesis, program and debug with VIO and ILA.

6

Verify with SystemVerilog — classes-based testbenches, coverage and assertions.

7

Build UVM testbenches — reusable, industry-standard verification environments.

8

Ship complete projects — from RTL to FPGA realization and full verification.

Hands-on & capstone projects

ProjectSkills developed
Multi-Client Chat App, Memory Leak Detection Toolkit & Commerce Cart SimulatorC++, OOP, problem solving
Concurrent Chat Server using Socket ProgrammingLinux, networking, concurrency
UART, SPI, I²C & AXI4 Controller DesignRTL design, protocol design, simulation
Digital Controllers & ALU Cores on FPGADesign, simulation, FPGA implementation and verification
SystemVerilog Verification of Controllers, CPU Cores & ProtocolsSV testbenches, coverage, assertions

Project selection depends on learner readiness, project scope and curriculum coverage.

Certification path

Final certification

[Certification name]

Awarded after all modules, assessments and capstone projects.

Assessment through module assignments, hands-on labs, FPGA demonstrations and capstone project reviews.

Placement & job opportunities

VLSI jobs: from classroom to career

Interview readiness and placement assistance, powered by career-focused learning.

Learn

Structured modules, technical resources and self-paced sessions.

Practice

Hands-on labs on Verilog, QuestaSim and FPGA boards, plus guided practice.

Assess

Domain assessments, skill-gap analysis and screening-test preparation.

Get placement-ready

Interview prep, portfolio guidance, resume and project readiness, and job opportunities.

Industry job roles

VLSI Design EngineerRTL Design EngineerFPGA EngineerASIC Design EngineerVerification Engineer (SystemVerilog / UVM)Graduate Engineer Trainee (VLSI / Embedded)

Industries hiring

Semiconductor and chip design, ASIC and SoC design services, FPGA-based product development, EDA and verification services, automotive and consumer electronics.

Who should enroll?

ECE/EEE students and graduates, CSE, ECE, EE and related branches.

Fresh graduates aiming for VLSI design and verification careers.

Early-career engineers seeking to upskill in RTL design or verification.

Hiring Client

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x VLSI Design & Verification — FAQs

Frequently asked questions

What is the duration of the Diploma in VLSI Design & Verification?

The program runs for a total of 300 hours.

Is the VLSI course online or offline?

The program is available online and offline, supported by the Cranes Digital Academy platform.

Which tools and boards will I use?

Learners work with Xilinx Vivado, QuestaSim and EDA Playground, on Artix-7 FPGA and Zynq SoC boards.

Does the program cover verification?

Yes. The specialization covers Design and Verification using SystemVerilog and Verification using UVM.

What projects will I build?

Projects include protocol controllers (UART, SPI, I2C, AXI4), digital controllers and ALU cores on FPGA, SystemVerilog verification of controllers and CPU cores, and C++ and Linux applications.

What jobs can I apply for after the course?

Roles include VLSI Design Engineer, RTL Design Engineer, FPGA Engineer, ASIC Design Engineer, Verification Engineer and Graduate Engineer Trainee.

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