“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.
Foundations of Electronics, Physics, and 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.
Transition to Semiconductor and 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:
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.
Chip Design Expertise and 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. 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.
