WPU GŌA
B.Tech in Electronics and Semiconductor Technologies

B.Tech in Electronics and Semiconductor Technologies

How do we design chips that power everything, from satellites and electric vehicles to smartphones and medical devices?

How do billions of transistors fit onto a fingernail-sized wafer while becoming faster, cooler, and more efficient each year?

As India builds a world-class semiconductor ecosystem, who will design the next generation of processors, intelligent sensors, and integrated systems?

The global landscape for Electronics and Semiconductor Engineering is currently defined by significant strategic investment and acute talent demand, fueled by worldwide efforts to secure supply chains and accelerate advanced hardware innovation. The global scarcity of engineers with multidisciplinary skills is particularly pronounced in this sector, highlighting the Programmes strategic value. Professionals in this field are crucial for the design, verification, and testing of complex Integrated Circuits (ICs) that power everything from consumer electronics to advanced telecommunications and automotive technology.

The EST Programme builds strong foundations in electronics, semiconductor physics, digital and analog circuits, CMOS technology, VLSI design flows, embedded prototyping, hardware-software integration, and system-on-chip development. Organisations are seeking professionals who can integrate engineering depth with cross-domain fluency, connecting programming with psychology, data with design, cybersecurity with governance, and AI with ethics. WPU GŌA’s transdisciplinary learning model and TDP structure have been specifically designed to prepare students for this new world.

Through the EST Programme, you will learn to think like an engineer and design like an innovator, moving from circuit-level modelling to chip design pipelines, from transistor behaviour to system-level architectures, and from device physics to real-world applications. WPU GŌA’s transdisciplinary and industry-integrated learning model ensures that you are not just trained in technical domains, but are prepared for the ethical, economic, and geopolitical contexts of semiconductor engineering.

You will be taught by faculty who are researchers, semiconductor technologists, embedded engineers, materials scientists, and VLSI experts. Their work with industry, government missions, and research laboratories directly informs the curriculum. Through experiential learning, including advanced labs, makerspaces, EDA platforms, FPGA studios, field exposure, chip-design hackathons, and R&D mini-projects, you will develop the ability to translate ideas into high-performance systems.

Through research-driven pedagogy, labs, global immersions, national exposures, studio-based problem-solving, and a signature capstone, the EST Programme transforms students into engineers capable of shaping India’s and the world’s digital futures.

What Will You Learn?

Year 1 — Foundations of Electronics, Physics & Computational Thinking

You will build essential engineering fundamentals, including circuit behaviour, materials, digital logic, programming, and problem-solving. Courses such as Engineering Graphics, Basics of Electrical & Electronics Engineering, Digital Electronics, and Programming with Python/C introduce you to the principles that underpin modern electronic systems. Hands-on labs help you design and test your first circuits and embedded prototypes. A two week International Immersion exposes you to global ecosystems, companies, industries, techniques and Innovation hubs.

Year 2 — Core Electronics, Algorithms & Integrated Systems

You deepen your understanding of electronics through Integrated Circuits, Control Systems, Signal Processing, Data Structures & Algorithms, and PCB Manufacturing. You also gain proficiency with Linux, industry-grade tools, and algorithmic thinking, developing a robust bridge between hardware and software. You will also learn these core subjects while also undergoing an NGO/Social Immersion that exposes you to ground realities of education, public infrastructure, livelihoods, health, development, and governance. The systems and stakeholder mapping project helps you identify technology gaps and opportunities for responsible engineering.

Year 3 — Transition to Semiconductor & Embedded Specialisation

This year marks your entry into advanced semiconductor domains. You study Semiconductor Fabrication Technology, RTOS-based Embedded System Design, and deepen your understanding of electronics manufacturing and verification flows. A course in Government Policy Analysis gives you insights into semiconductor ecosystems, global value chains, and regulatory environments. You will also finalise your specialisation in one of the three pathways: VLSI Design & Fabrication, Embedded & IoT Systems, or Semiconductor Manufacturing & Process Technology. Through the Grand Challenge Studio, you work on complex field-driven problems involving AI for public systems, digital governance, coastal resilience analytics, smart mobility, or behavioural-tech platforms. A National Immersion at an IIT gives exposure to advanced engineering innovation, and a trade show in Dubai builds global industry awareness. The Industry internship provides real-world depth that they transform into deployable prototypes in Grand Challenge Studio II.

Year 4 — Chip Design Expertise & Industry Readiness

You refine your expertise through advanced modules including IC Fabrication, Process Technology, and FPGA-based system design. By now, you can model devices, design VLSI systems, verify architectures, and build embedded prototypes. The final year prepares you for careers in fabless semiconductor companies, chip design houses, embedded R&D teams, and electronics innovation ecosystems, alongside a semester exchange with a partner university abroad, focusing on AI research, advanced computing, HCI, robotics, or computational sciences. You participate in the Active Citizenship Programme providing a direct understanding of governance, digital policy, regulatory frameworks, and civic-tech. Your Capstone Project synthesizes technical depth with cross-domain insight, culminating in solutions aligned with real-world needs.

Programme Structure

1st Year · Semester 1

Focus: Students build intellectual foundations in analytical writing, systems thinking, mathematics for engineering, and computational logic. They begin thinking like engineers while developing reasoning, communication, and structured problem-solving skills.

  • Writing & Rhetoric I (4 credits)
  • Programming for Engineers (Python) (4 credits)
  • Systems Thinking & Problem Framing (4 credits)
  • Engineering Physics I (Mechanics) (4 credits)
  • Engineering Mathematics I (4 credits)

1st Year · Semester 2

Focus: Students deepen quantitative reasoning, begin understanding electrical systems, explore data literacy, and engage philosophical and ethical reasoning that frames technology in society.

  • Philosophical & Cultural Thought (4 credits)
  • Basic Electrical Engineering (4 credits)
  • Data, Information & Visualization (4 credits)
  • Engineering Physics II (Quantum Mechanics) (4 credits)
  • Engineering Mathematics II (4 credits)

2nd Year · Semester 3

Focus: Students transition from foundational science into core electronics. They begin analyzing circuits, semiconductor behavior, and signals, while building academic writing in technical contexts.

  • Writing in the Disciplines (4 credits)
  • Signals & Systems (4 credits)
  • Electronic Devices I (4 credits)
  • Digital Logic Design (4 credits)
  • Circuit Theory (4 credits)

2nd Year · Semester 4

Focus: Students integrate devices, mathematics, control systems, and microprocessors. Laboratory learning intensifies. AI literacy contextualizes semiconductor technologies in digital futures.

  • AI Literacy & Responsible Technology (4 credits)
  • Microprocessors & Microcontrollers (4 credits)
  • Electronic Devices II (Advanced Semiconductor Devices) (4 credits)
  • Laboratory: Devices & Circuits (4 credits)
  • Analog Electronic Circuits (4 credits)

3rd Year · Semester 5

Focus: Students enter chip-level thinking. They learn CMOS fundamentals, fabrication processes, solid-state electronics, and system architecture.

  • VLSI Design I (CMOS Fundamentals) (4 credits)
  • Computer Organization & Embedded Systems (4 credits)
  • Semiconductor Manufacturing & Process Technology (Fabrication Integration) (4 credits)
  • Communication, Collaboration & Leadership (4 credits)
  • Solid State Electronics (4 credits)

3rd Year · Semester 6

Focus: Students move into advanced VLSI, manufacturing systems, and reliability. They begin selecting their specialisation track.

  • VLSI Design II (Physical Design & Verification) (4 credits)
  • Within-Domain Specialisation I (4 credits)
  • Semiconductor Manufacturing & Process Technology (4 credits)
  • Planning, Execution & Project Management (4 credits)
  • Semiconductor Reliability & Testing (4 credits)

4th Year · Semester 7

Focus: Students deepen specialisation, integrate entrepreneurship and geopolitics, and engage in real-world internship exposure.

  • Within-Domain Specialisation II (4 credits)
  • Cross-Domain Specialisation I (4 credits)
  • Within-Domain Specialisation III (4 credits)
  • Internship (Credit-bearing) (4 credits)
  • Directed Elective I (4 credits)

4th Year · Semester 8

Focus: Students execute a full-scale semiconductor design / fabrication / systems project integrating device physics, system architecture, economics, sustainability, and ethics.

  • Capstone Project (12 credits)
  • Directed Elective II (4 credits)
  • Cross-Domain Specialisation II (4 credits)

Directed & Cross-Domain Electives

Directed Electives

(Students choose 2 – 8 Credits)

  • Power Electronics
  • MEMS & Nanoscale Devices
  • Neuromorphic Computing
  • AI Hardware Accelerators
  • Advanced Electromagnetics
  • Energy-Efficient System Design
  • Photonics / Optoelectronics

Cross-Domain Specialisation Options

Students choose one of the following curated pathways from another domain or design their own cross-domain specialization under supervision from an academic advisor.

  • Design Thinking & Innovation
  • Behavioral Science & Human Decision Making
  • Entrepreneurship & Venture Creation
  • Media Communication & Digital Storytelling

The courses listed are indicative and subject to change.

Specialisations

Within-Domain Specialisations

Students choose one Within-Domain Specialisation, gaining deep expertise across the semiconductor value chain. You are prepared for careers across fabless semiconductor companies, embedded tech firms, defence and aerospace R&D, automotive electronics, AI-on-chip innovation labs, sensor design units, and global hardware companies.

1

VLSI Design & Fabrication

This specialisation focuses on end-to-end chip design and manufacturing, from transistor-level design to wafer fabrication and testing. Students learn CMOS fundamentals, digital and analog VLSI, EDA tool flows, clean-room processes, and semiconductor fabrication technologies. This prepares them for roles across chip design companies, research labs, semiconductor fabs, and hardware startups.

Core Focus
  • Advanced CMOS Devices
  • Low-Power IC Design
  • Design for Manufacturing & Yield Engineering
  • SoC Design

Career roles include VLSI Design Engineer, Physical Design Engineer, DFT Engineer, Process Engineer, Fab Operations Engineer, Mask Layout Designer, and Device Modeling Specialist. India’s budding semiconductor ecosystem — driven by companies like Tata Electronics, Micron, Applied Materials, AMD, and Qualcomm — offers strong opportunities, alongside major global hubs in Taiwan, South Korea, Japan, the U.S., and Europe.

2

Embedded & IoT Systems

This track combines electronics, computing, communication, and systems integration. Students learn real-time systems, microcontroller programming, sensor networks, IoT architecture, and edge computing. As India expands its smart manufacturing, mobility, agriculture, home automation, and digital public infrastructure, embedded systems engineers are in high demand.

Core Focus
  • Real-Time Operating Systems
  • FPGA Architecture & Design
  • IoT Architectures & Edge Computing
  • Hardware Security

Career roles include Embedded Programmer, IoT Engineer, Firmware Developer, Systems Integrator, Robotics & Automation Engineer, Smart Device Developer, and Embedded AI Engineer. Global demand is exceptionally strong in industrial automation, smart city infrastructure, medical devices, and autonomous systems, and the convergence of AI with embedded hardware (TinyML, edge AI) opens new pathways.

3

Semiconductor Manufacturing & Process Technology

This specialisation prepares students for the manufacturing side of semiconductors, including wafer processing, lithography, metrology, yield engineering, packaging, and automated testing. Students understand the complexities of fab operations, equipment calibration, process optimization, and quality control.

Core Focus
  • Advanced Lithography
  • Semiconductor Metrology & Yield Analytics
  • Cleanroom Systems Engineering
  • Advanced Packaging & Heterogeneous Integration

Career roles include Process Engineer, Yield Engineer, Equipment Engineer, Reliability Engineer, Fab Integration Engineer, and Packaging & Testing Specialist. As India sets up its first generation of fabs and global companies expand operations, process engineers will be in exceptionally high demand — with opportunities at Intel, GlobalFoundries (U.S.), TSMC (Taiwan), Samsung (South Korea), and ASML partnerships (Europe).

The Four-Year Immersion Journey

1st Year

1st Year

Students participate in a two-week International Immersion, visiting technology clusters, AI labs, smart city platforms, and innovation ecosystems. They work on a Mini Grand Challenge that builds interdisciplinary collaboration and early systems thinking.

2nd Year

2nd Year

The NGO / Social Immersion exposes students to education, rural development, social enterprises, public data systems, and community-level infrastructure. Their reflections translate into system maps and engineering briefs. They also spend one week at the Life Transformation Centre (LTC); developing their ethical lens, leadership skills, and reflective clarity, and undertake a Pune industrial visit to observe real-world production environments.

3rd Year

3rd Year

The semester-long Grand Challenge Studio I is a defining experience. Students tackle real problems such as AI-driven healthcare insights, digital inclusion tools, data-driven environmental prediction, or behavioral analytics for public systems. The National Immersion at an IIT deepens exposure to cutting-edge engineering research. The Taiwan trade show introduces them to global market trends, cyber-physical innovations, and AI/ML industrial applications. Their industry internship whether in AI labs, cybersecurity firms, digital consulting, cloud companies, or startups becomes the foundation for Grand Challenge Studio II, where they turn insights into working prototypes.

4th Year

4th Year

Students may undertake a semester exchange with a partner university abroad, focusing on AI research, advanced computing, HCI, robotics, or computational sciences. The Active Citizenship Program provides a direct understanding of governance, digital policy, regulatory frameworks, and civic-tech. Their Capstone Project synthesizes technical depth with cross-domain insight.

Highlights

1

Semiconductor-Focused, Not Generic Electronics

The program is designed around semiconductor technologies spanning VLSI design, fabrication processes, embedded systems, and manufacturing ecosystems.

2

Design, Fabrication and Manufacturing Ecosystem Exposure

Students understand the full semiconductor value chain from chip architecture and circuit simulation to manufacturing systems and quality processes.

3

VLSI & Embedded Systems as Core Identity

The curriculum emphasizes VLSI design, embedded systems, and hardware software integration, preparing students for advanced semiconductor and intelligent device ecosystems.

4

11 Months of Structured Professional Experience Before Graduation

Students graduate not with a single internship, but with a sequence of industry, research, and social sector engagements that progressively build professional maturity culminating in a 6-month capstone embedded in industry, startup, or research environments.

5

Systems-Scale Electronics Thinking

Students are trained to understand how semiconductors power larger systems such as AI hardware, telecommunications, renewable energy grids, autonomous devices, and smart infrastructure.

6

Electronics for India’s Strategic Future

The program aligns with India’s semiconductor and electronics manufacturing ambitions, preparing engineers for roles in strategic technology sectors including chip fabrication, defense electronics, AI hardware, and energy systems.

7

Hands-On Hardware

Students build, test, and prototype hardware systems early reinforcing theory through labs, fabrication projects, and studio-based experimentation.

8

Research-Linked Undergraduate Engineering

Students engage in research institutes from early years, participating in data collection, experimentation, chip simulation, and applied innovation projects.

9

Residential Engineering Community

Students live and collaborate in scholar communities with faculty mentorship, creating a studio-like innovation culture that mirrors global engineering labs.

10

An Innovative & Flexible Curriculum

Our Electronics & Semiconductor Engineering is structured through program-centric academic rigor, basket-based flexible course access, structured specialisation pathways and Cross-domain integration.

11

Emerging Technology Specialisations

Students choose one within-domain specialisation such as VLSI Design & Fabrication, Embedded & IoT Systems or Semiconductor Manufacturing & Process Technology.

12

Cross-Domain Integration

In addition to within-domain specialization, every student completes a structured cross-domain pathway such as Design Thinking & Innovation, Entrepreneurship & Venture Creation or Behavioral Science & Human Decision Making.

13

Integration of Emerging Technologies

Within advanced coursework and projects, students engage with AI/ML for Chip Design (EDA optimization, yield prediction, defect analytics), Quantum & Advanced Electronics Foundations, Photonics & Next-Generation Devices, Sustainable Semiconductor Manufacturing & Energy Efficiency and Smart Systems & Edge Intelligence.

14

Programming & Technical Proficiency

Students gain hands-on exposure to software fluency through embedded C / C++, Python for hardware analytics, HDL (Verilog / VHDL), Simulation tools, EDA platforms and Data-driven device analysis.

The Future

The Future

Electronics and semiconductor engineering is entering a golden era globally and in India. Over the next decade, millions of devices will come online, automotive electrification will accelerate, energy systems will digitize, and computation will shift increasingly to the edge. Semiconductor fabs are being built at unprecedented scale, and the geopolitical need for reliable supply chains ensures long-term career security in this field.

Within-domain specialisations, VLSI, Embedded & IoT, and Process Technology will remain highly future-proof. VLSI will dominate as AI accelerators, neuromorphic chips, and low-power systems reshape computing. Embedded engineering will thrive with robotics, smart manufacturing, and ubiquitous IoT. Semiconductor manufacturing will see exponential growth as India becomes a global alternative in the chip ecosystem.

Electronics & Semiconductor Engineering graduates from WPU GŌA will be positioned at the forefront of India’s transformation into a global semiconductor powerhouse, with the ability to grow, innovate, and lead across technical, strategic, and interdisciplinary roles.

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