Job-Oriented VLSI Design Training with Live Project (Online)
Master VLSI in 10 Days – Skills That Industry Demands


15–25 April 2026 | 7:30 PM IST | Online | Certificate
India – 7:00 PM | Saudi Arabia – 4:30 PM | Dubai – 5:30 PM | Malaysia – 9:30 PM | London – 2:30 PM | New York – 9:30 AM
About the Course
This intensive 10-day online VLSI Design training program is designed to provide a complete understanding of the semiconductor chip design flow—from RTL coding to physical design and verification. The course combines strong theoretical concepts with hands-on exposure to industry-standard tools such as Cadence, Synopsys, and Mentor Graphics. Participants will gain practical skills in Verilog HDL, synthesis, timing analysis, and backend design, making them industry-ready at a beginner level. Whether you aim to enter the semiconductor industry or strengthen your electronics design skills, this course offers a solid foundation aligned with real-world workflows.
Why Learn VLSI
VLSI powers modern electronics and is used in:
📱 Smartphones & consumer electronics
💻 Microprocessors & computer systems
🚗 Automotive & EV technology
📡 5G & IoT communication systems
🏥 Medical & embedded systems
🤖 AI chip design & hardware accelerators
Industry & Career Opportunities
The semiconductor industry is rapidly growing with high demand for skilled professionals. After completing this training, you can explore roles such as:
VLSI Design Engineer
RTL Design Engineer
Verification Engineer
Physical Design Engineer
Timing / STA Engineer
Top Hiring Companies:
Intel, Qualcomm, NVIDIA, AMD, TSMC, Samsung, Texas Instruments, and more.
Course Objectives & Learning Outcomes
This training program is designed to provide a comprehensive understanding of the complete VLSI design flow, enabling participants to build strong foundational and practical skills required in the semiconductor industry. The course focuses on developing proficiency in digital design, Verilog HDL, synthesis, timing analysis, and physical design, while offering hands-on exposure to industry-standard tools and workflows.
By the end of the program, participants will be able to:
Understand the end-to-end VLSI design cycle from RTL to GDSII
Design and simulate digital circuits using Verilog HDL
Apply concepts of CMOS technology and digital electronics in chip design
Perform RTL design, synthesis, and timing analysis (STA)
Gain working knowledge of physical design flow, including placement, routing, and verification
Identify and resolve timing and design issues in real-world scenarios
Work on a mini industry-based project, enhancing practical exposure
Develop problem-solving and debugging skills aligned with industry requirements
Prepare for entry-level roles in VLSI such as Design, Verification, and Physical Design Engineer
Who Can Join
B. Tech / B.E (ECE, EE, EEE, Electronics) students
Diploma students in electronics-related fields
M. Tech (VLSI / Embedded Systems) students
Beginners interested in semiconductor industry
Professionals planning to switch to VLSI domain
Course Fee
Indian Participants: Rs 2499
International Participants: $100 USD
Training Module
Day 1: Introduction to VLSI & Industry Flow
Overview of VLSI and applications
Moore’s Law and scaling trends
Full chip design flow (Spec → RTL → GDSII → Fabrication)
Frontend vs Backend
Tool introduction (Cadence, Synopsys, Mentor)
Day 2: CMOS Technology Basics
MOSFET operation (NMOS, PMOS)
CMOS inverter & logic gates
Power dissipation concepts
Technology nodes (7nm, 14nm, etc.)
Day 3: Digital Design Fundamentals
Combinational & sequential circuits
Flip-flops and latches
Timing concepts (setup, hold, delay)
Clocking strategies
Day 4: Verilog HDL (RTL Design)
Verilog syntax & modeling
Behavioral vs structural design
Testbench basics & simulation
Day 5: Advanced RTL Design
FSM design (Moore & Mealy)
Coding practices for synthesis
Blocking vs non-blocking assignments
Day 6: Synthesis (RTL to Gate-Level)
Synthesis flow
Timing constraints (SDC)
Area vs speed trade-offs
Tools: Design Compiler / Genus
Day 7: Static Timing Analysis (STA)
Timing paths and analysis
Clock skew and uncertainty
Timing violations and fixes
PrimeTime basics
Day 8: Physical Design (Backend)
Floorplanning & placement
Clock Tree Synthesis (CTS)
Routing basics
Innovus introduction
Day 9: Physical Verification & Signoff
DRC & LVS
Power integrity (IR drop, EM)
Signal integrity basics
Tape-out process
Day 10: Industry Project & Career Guidance
Mini project (RTL → Synthesis → PD flow)
Debugging real design issues
Career paths & interview guidance
