
The semiconductor industry is creating opportunities for engineers with skills in chip architecture, digital design, verification and physical implementation. As India expands its semiconductor ecosystem, learning how integrated circuits are designed and developed can help engineering students and graduates prepare for specialised technical roles.
Through its collaborations with leading institutions such as IITs, PW Online Degree brings learners access to specialised programmes that combine academic expertise with industry-relevant learning. One such opportunity is the IITM Pravartak VLSI Design Course, designed by IITM Pravartak faculty and delivered by IIT Madras and IIT experts. This five-month online programme covers the chip design process, from MOSFETs and CMOS logic to Verilog, RTL design, verification and physical design, with practical labs and a capstone project.
Semiconductors are central to modern technology. Every smartphone, computer, connected device and many industrial systems depend on chips that perform specific computing and control functions. As the semiconductor industry expands, companies need professionals who can contribute to different stages of chip development.
The global semiconductor industry is projected to reach $1 trillion by 2030, while India's semiconductor market is projected to reach $64 billion by 2026. VLSI and embedded systems also account for a significant share of India's research and development activity, and demand for VLSI engineers is projected to grow at a 15% CAGR.
This growing industry creates opportunities across several technical roles. Depending on your knowledge and experience, you can explore careers such as:
|
Career Role |
Typical Area of Work |
|
VLSI Design Engineer |
Designing and developing integrated circuits |
|
Verification Engineer |
Checking whether a chip design functions as intended |
|
RTL Design Engineer |
Developing register-transfer-level descriptions of digital circuits |
|
ASIC Engineer |
Working on application-specific integrated circuit design |
|
CAD/EDA Tool Engineer |
Supporting electronic design automation tools and workflows |
|
Physical Design Engineer |
Working on chip floorplanning, placement, routing and timing closure |
The programme introduces the VLSI design process from its fundamental building blocks to the stages involved in preparing a chip layout. It covers five months of learning and 80 hours of training, with a focus on both theoretical concepts and practical application.
During the programme, you will learn to:
Understand MOSFETs and CMOS logic.
Write code using Verilog.
Work with RTL design and synthesis.
Perform timing analysis.
Explore floorplanning and routing.
Build and test testbenches.
Understand verification methods.
The learning journey connects these topics rather than treating them as isolated concepts. You begin with transistor-level fundamentals, move into digital logic and hardware description, and then explore how designs are synthesised, verified and prepared for physical implementation.
This end-to-end perspective helps you understand how individual design decisions affect the final chip. You also get exposure to the tools and processes used at different stages of the VLSI workflow.
The curriculum is divided into two learning levels, with 40 hours dedicated to the beginner module and another 40 hours to the intermediate module. This progression takes you from foundational concepts and design techniques to more advanced verification, low-power design and implementation methods.
The first 40 hours introduce the concepts and techniques needed to understand the basic chip design process.
|
Topic |
What You Will Cover |
|
MOSFETs and CMOS Logic |
Transistor fundamentals and CMOS logic |
|
ISA and Computer Architecture |
Instruction Set Architecture and computer architecture concepts |
|
Verilog Basics and Testbenches |
Hardware description using Verilog and basic testbench development |
|
RTL Design and Synthesis |
Register-transfer-level design and synthesis |
|
Timing Analysis |
Understanding timing requirements in digital circuits |
|
Floorplanning and Routing |
Introduction to physical design and layout |
|
Basic Verification |
Fundamental methods for checking design functionality |
The next 40 hours introduce techniques used in more advanced VLSI workflows. You explore design optimisation, testability, scripting and verification methods.
|
Topic |
What You Will Cover |
|
FinFET and Low-Power Design |
Advanced transistor technology and methods for reducing power consumption |
|
DFT, Scan and BIST |
Design for Testability, scan techniques and Built-In Self-Test |
|
Tcl and Python Scripting |
Scripting techniques used in design and automation workflows |
|
Advanced Verification (UVM) |
Universal Verification Methodology and advanced verification concepts |
|
Clock-Tree Synthesis and Closure |
Clock distribution and timing closure in physical design |
The programme also introduces technologies and design approaches relevant to the development of modern semiconductor devices. These areas help you understand how chip design continues to evolve as performance, power efficiency, integration and security become increasingly important.
FinFET and advanced transistor nodes: Explore transistor technologies used in advanced semiconductor manufacturing.
Low-power design methods: Understand techniques for reducing power consumption in chip designs.
AI-assisted design flows: Learn about the use of AI in supporting design and engineering workflows.
3D-IC and chip stacking: Get introduced to methods of integrating multiple chip components in three-dimensional arrangements.
Testability and BIST: Understand how design-for-test techniques and built-in testing help identify faults.
Hardware security fundamentals: Explore basic security considerations in hardware design.
Understanding VLSI concepts requires more than reading about circuit design. You also need to see how design tools are used and how different stages of the workflow are carried out.
The programme follows an online learning format with weekly live sessions, tool demonstrations, labs and faculty mentoring. Recorded sessions are also available for revision.
|
Learning Component |
How It Supports Your Learning |
|
Weekly live sessions |
Help you learn concepts and interact during scheduled classes |
|
Tool demonstrations |
Introduce you to the tools used in VLSI design workflows |
|
Practical labs |
Give you opportunities to apply concepts through hands-on exercises |
|
Faculty mentoring |
Provides academic guidance during the programme |
|
Recorded sessions |
Let you revisit lessons while revising topics |
A key part of the programme is its capstone project, which allows you to apply the concepts covered during the course to a complete design workflow.
The project follows the stages of chip development, including:
RTL → Synthesis → Place and Route → Sign-off
You will work through the design flow and explore how to optimise a chip design for three important parameters:
Performance: Consider how the design meets its functional and timing requirements.
Power: Examine power-related considerations during design optimisation.
Area: Understand how the physical area occupied by the design can be managed.
The project concludes with a final demonstration and faculty review. This gives you an opportunity to present your work and explain the decisions involved in the design process.
The capstone is particularly relevant because it connects the individual topics covered in the curriculum. Instead of learning RTL design, synthesis and physical design separately, you get to see how these stages contribute to the development and evaluation of a chip.
The programme is intended for engineering students and graduates who want to develop their knowledge of chip design and gain practical exposure to VLSI tools.
The listed academic profiles include:
Engineering graduates: Graduates with a 10+2+4 qualification in Electronics and Communication Engineering (ECE), Electrical Engineering (EE) or related streams.
Fresh graduates: Graduates with a strong background in digital logic.
Engineering undergraduates: Students in the second to fourth year of engineering who are interested in chip design.
Students seeking practical experience: Learners who want to gain exposure to electronic design automation (EDA) tools.
The programme offers two certificate categories, depending on attendance and evaluation.
|
Certificate |
Eligibility |
|
Certificate of Completion |
Requires meeting the prescribed attendance and evaluation criteria |
|
Certificate of Participation |
Based on attendance only |
Both certificates are issued by IITM Pravartak. The Certificate of Completion is intended for learners who fulfil the applicable attendance and evaluation requirements, while the Certificate of Participation recognises attendance.
PW Online Degree connects learners with specialised degree and certificate programmes offered in collaboration with reputed universities and institutions. It also helps simplify the process of exploring programmes and finding learning opportunities that match your academic and career interests.
Key features include:
Diverse Programme Options: Explore undergraduate degrees, postgraduate degrees, and professional certificate programmes across different fields.
Institutional Collaborations: Access specialised learning opportunities through partnerships with reputed universities and institutions.
Course Selection Guidance: Get assistance in understanding programme options and identifying courses suited to your goals.
Flexible Online Learning: Explore online programmes that allow you to study from your preferred location.
Academic and Learning Support: Access guidance and learning assistance throughout your educational journey.
Career-Focused Opportunities: Explore programmes that help you develop knowledge and skills relevant to emerging industries.
Building a career in semiconductor design requires an understanding of digital systems, chip architecture and the different stages of VLSI development. The IITM Pravartak VLSI Design Course, available through PW Online Degree's collaboration with IITM Pravartak, brings these areas together through 80 hours of online learning, practical tool demonstrations, faculty mentoring and an end-to-end capstone project. If you want to develop your knowledge of VLSI and explore roles in chip design and verification, review the programme's curriculum, eligibility and fee details to see whether it fits your learning goals. PW Online Degree's collaborations with leading institutions also give learners access to specialised programmes across emerging technology fields.
