VLSI Design | Vidyawan

Program Overview

Program Name	VLSI Design
Domain / Stream	VLSI
Duration	1 Month (4 Weeks)
Mode	Online (Self-Paced + Weekly Tasks)
Certificate	Yes — MSME & ISO 9001:2015 Certified
Program Fee	₹999 ₹499 50% OFF (One-Time)
Student Rating	★★★★★ 4.8 / 5 by 1000+ students
Offer Letter	Issued on Enrollment
Issued By	Shiva Tech Innovations (UDYAM-WB-14-0205610)

Program Details & Curriculum

VLSI Design Internship

Duration: 30 Days | Certificate: MSME Recognized | Support: support@vidyawan.in

Program Overview

This internship takes students through the complete real-world VLSI design lifecycle — from understanding how silicon chips are manufactured to designing, verifying, and integrating digital hardware systems using Verilog and industry-style workflows.

Students do not just learn syntax. They learn how actual semiconductor engineers think, debug, optimize, and validate hardware before fabrication.

Every level is guided by VIDYA, our AI Teacher, which evaluates answers, identifies weak concepts, provides personalised feedback, and ensures the student understands each stage before progressing.

The internship is designed around the same engineering mindset used in semiconductor companies working on CPUs, GPUs, SoCs, AI accelerators, networking chips, and embedded hardware systems.

Content Standard — How Every Topic is Taught

This internship follows a fixed learning architecture across every module so students build conceptual understanding instead of memorising Verilog syntax.

Stage	What Happens
Concept First	Core hardware theory is explained before any coding begins
Demonstration	Real waveform examples, RTL diagrams, and silicon-level interpretations are shown
Guided Practice	Students implement logic themselves while VIDYA provides hints and correction guidance
Assessment	MCQ, debugging, timing, and logic questions evaluated instantly by VIDYA
Revision and Lock	Critical concepts reinforced through repetition and recall exercises
Advanced Application	Edge cases, timing failures, verification issues, and optimisation trade-offs explored
Real-World Connect	Every topic linked to how actual semiconductor companies use it in production

VIDYA AI operates throughout all seven stages — checking understanding, detecting misconceptions, simplifying difficult concepts, and guiding students through debugging without directly giving solutions.

Content Quality — The Vidya Standard

The content inside every VLSI zone is written to a defined engineering standard. It is not copied from textbook PDFs or generic Verilog tutorials. It is written for Indian engineering students preparing for internships, placements, and real semiconductor industry workflows.

Criteria	What It Means in Practice
India-Localised Examples	Concepts connected to systems students use daily — UPI machines, Jio towers, IRCTC ticketing, metro gate controllers, smart TVs, routers, biometric attendance systems
Interactive Verilog Practice	Every RTL example produces meaningful waveform output. Students build ALUs, traffic light controllers, FIFOs, digital locks, vending machines, UART modules, and processor blocks
Real Engineering Debugging	Students analyse broken RTL, failing simulations, race conditions, setup violations, incorrect waveforms, and timing failures
Simulation-Driven Learning	Every concept is demonstrated using waveform analysis, clock behavior, and testbench execution instead of static theory alone
Cultural Relevance	Analogies based on Tatkal booking load, metro rush-hour queues, hostel Wi-Fi congestion, IPL scoreboard updates, and traffic signal timing
Language	Clean, simple English understandable across Chennai, Kolkata, Hyderabad, Kochi, Pune, Bhubaneswar, Ahmedabad, and Guwahati
Length Discipline	Explanations remain concise, high-retention, and interview-focused
Industry Vocabulary	Students become comfortable with terms like RTL, synthesis, STA, slack, timing closure, DRC, LVS, netlist, critical path, and tapeout
Concept-to-Silicon Mapping	Every Verilog construct is explained in terms of actual hardware behavior — gates, flip-flops, multiplexers, datapaths, and storage elements
Portfolio-Focused Learning	Every project is structured to become a portfolio-ready VLSI design and verification showcase

Curriculum — 6 Levels

LEVEL 1 — Thinking in Silicon: How Chips Are Actually Made

Real-world context: Before writing a single line of Verilog, understand what a chip really is, how fabrication works, and why hardware engineering is fundamentally different from software development.

Module	What You Learn
From Sand to Silicon: The Chip Manufacturing Pipeline	Wafer fabrication, CMOS basics, lithography, dies, packaging, fabrication flow, process nodes
The VLSI Design Flow: Your Day-to-Day as a Chip Engineer	RTL design, synthesis, place-and-route, timing closure, signoff, tapeout workflow

LEVEL 2 — Speaking Verilog: The Language of Hardware

Real-world context: Verilog is the foundation of digital hardware design. Every processor, controller, and accelerator begins as RTL.

Module	What You Learn
Verilog Fundamentals: Modules, Ports, and Signals	Modules, wires, regs, procedural blocks, combinational RTL, synthesizable design
Combinational vs Sequential Logic	Flip-flops, clocks, synchronous design, setup/hold timing, sequential behavior

LEVEL 3 — Building Blocks: The Circuits Inside Every Chip

Real-world context: Modern processors are built from reusable digital building blocks connected together at scale.

Module	What You Learn
Arithmetic Circuits: Adders, Subtractors, and ALUs	Full adders, ripple carry, carry lookahead, ALU design, datapath fundamentals
Memory Elements: Registers, FIFOs, and Register Files	Storage hierarchy, FIFOs, register design, pointer logic, buffering systems

LEVEL 4 — Verification: Proving Your Design Works

Real-world context: Verification consumes the majority of engineering effort in semiconductor companies because a fabricated bug is extremely expensive.

Module	What You Learn
Testbench Writing and Verification Fundamentals	Stimulus generation, assertions, self-checking testbenches, DUT validation
Simulation and Waveform Debugging	VCD analysis, waveform interpretation, race conditions, debugging failing RTL

LEVEL 5 — Timing, Power, and Silicon Constraints

Real-world context: A design passing simulation is not enough. Real chips must satisfy timing, power, and manufacturability constraints.

Module	What You Learn
Static Timing Analysis and Timing Closure	Critical path analysis, slack, setup/hold violations, STA reports
Power Analysis and Low-Power Design	Dynamic power, leakage, clock gating, voltage scaling, power optimisation

LEVEL 6 — Capstone: Building a Complete Digital System

Real-world context: Students integrate everything learned into a complete industry-style digital design project.

Module	What You Learn
System-Level Integration	Top-level hierarchy, module integration, interfaces, bus design
Tapeout Readiness and Signoff Checks	DRC, LVS, signoff methodology, silicon validation flow

Industry Projects

Students must complete any 2 of the 5 projects below independently and publish them on LinkedIn as portfolio projects.

#	Project	Skills Applied
1	4-bit ALU Design and Verification	Verilog RTL, arithmetic circuits, simulation, verification
2	Synchronous FIFO with Full/Empty Flags	Sequential logic, buffering, pointer logic, testbench design
3	Traffic Light Controller (FSM-Based)	Finite State Machines, timing logic, sequential systems
4	Simple RISC Processor (3-Instruction CPU)	Processor architecture, datapath, control logic, memory integration
5	Full Chip Signoff Simulation Report	System integration, verification methodology, timing analysis

Minimum 2 approved project submissions are required for certification eligibility.

What Makes This Internship Different

Traditional Courses	This Internship
Focus only on Verilog syntax	Focus on complete chip design thinking
Generic toy examples	Real engineering-style hardware systems
No verification depth	Dedicated verification and debugging workflow
No timing awareness	STA and timing closure included
No industry connection	Every topic mapped to real semiconductor workflows
Passive watching	Guided implementation with AI feedback
Theory-heavy	Simulation-driven practical learning

Tools and Engineering Workflow Students Use

Students work with the same categories of workflows used in real digital design environments.

Area	Concepts and Tools
RTL Design	Verilog HDL, module hierarchy, synthesizable coding
Simulation	Testbench writing, waveform analysis, VCD debugging
Verification	Assertions, self-checking logic, corner case testing
Timing Analysis	Slack analysis, critical path reasoning
System Design	ALUs, FIFOs, FSMs, processor datapaths
Signoff Awareness	DRC, LVS, layout validation concepts

Certification

After successful project submission review and approval by the admin team, the student's MSME recognized internship certificate is generated and made available directly through the dashboard.

Internship Timeline

Phase	Days	What Happens
Learning Phase	Day 1 to Day 7	Complete all 6 learning levels
Project Phase	Day 8 to Day 29	Build projects, publish on LinkedIn, submit reports and simulation outputs
Certification Phase	Day 30	Project verification and certificate issuance

Real Industry Alignment

The internship is intentionally structured around the same progression followed inside semiconductor engineering teams:

Understand silicon → Write RTL → Build circuits → Verify behavior → Close timing → Integrate systems → Prepare for tapeout

By the end of the internship, students are expected to:

Read and write synthesizable Verilog
Design and debug digital systems
Create verification testbenches
Interpret timing and waveform issues
Understand real chip design constraints
Build portfolio-ready VLSI projects suitable for internships and fresher roles

The overall structure mirrors the workflow followed in companies building processors, networking chips, embedded systems, AI accelerators, and SoCs.

Performance Badge System

Students are awarded performance badges based on their quiz scores, task completion, and overall engagement.

🥇 Gold Badge

90%+ score & 4+ projects completed

🥈 Silver Badge

Consistent performance — 70–89%

🥉 Participant Badge

All learners who complete the program

Certificates You Will Receive

Verify Existing →

Upon successful completion you receive a Government-Recognised Certificate from Vidyawan — a registered MSME enterprise (UDYAM-WB-14-0205610), governed under ISO 9001:2015 quality standards.