B.Tech in Semiconductor Technology

A Curriculum Designed for the Future

Built on the ‘Goal for Each Term’ (GET) philosophy, our curriculum ensures every semester has a clear, outcome-driven focus; continuously evolving with emerging technology trends and the learning needs of our students.

Semester 1

Building the Engineering Foundation

The first semester builds a strong base in mathematics, physics, chemistry and programming, while introducing students to how semiconductors are designed, made and used across the world.

Engineering Mathematics I

Covers calculus and linear algebra to build a strong foundation for modelling and analysis.

Engineering Physics I

Explores mechanics, waves and optics through theory and hands-on labs.

Engineering Chemistry

Studies materials and electrochemistry, the chemistry behind chip manufacturing.

Introduction to Semiconductor Engineering

Explains what semiconductors are, how chips are made and why they matter.

Programming for Engineers: Python & C

Develops coding and problem-solving skills through hands-on exercises.

Engineering Graphics & Technical Drawing

Builds skills to read and create precise technical drawings.

Communication Skills for Engineers

Builds writing, presentation and teamwork skills for technical environments.

Multidisciplinary Elective I

Broaden your worldview with a course in AI, management or biology.

Environmental Studies

Introduces sustainability and environmental responsibility in engineering.

Semester 2

Materials & Circuit Fundamentals

Students explore the materials that make chips possible and learn how electronic devices and digital circuits work, while connecting India's heritage in metallurgy to modern materials science.

Engineering Mathematics II

Covers differential equations and complex analysis used in circuits and device modelling.

Engineering Physics II

Explores electromagnetism and modern physics, the science behind electronics.

Materials Science for Semiconductors

Studies silicon and other materials and how their properties shape device performance.

Electronic Devices & Circuits

Explains diodes, transistors and circuits through theory and lab work.

Digital Logic Design

Shows how binary logic and digital circuits form the basis of every chip.

Indian Knowledge Systems I

Connects India's ancient metallurgy and materials heritage to modern semiconductor materials.

Multidisciplinary Elective II

Strengthen your multidisciplinary learning portfolio.

Semester 3

Inside the Semiconductor

Students go deep into semiconductor physics and device theory, learning how junctions and transistors work at the atomic level, and how thin films are deposited to build devices.

Semiconductor Physics & Devices I

Covers PN junctions and bipolar transistors, the building blocks of electronics.

Quantum Mechanics for Engineers

Explains the quantum behaviour of electrons that governs every semiconductor.

Solid State Physics

Studies crystal structures and energy bands in solid materials.

Electromagnetic Theory

Builds understanding of electric and magnetic fields in devices and circuits.

Thin Film Technology & Deposition Processes

Learn how ultra-thin material layers are deposited to build chips.

Electronics Lab — Devices & Characterisation

Measure and analyse the behaviour of real electronic devices.

Design Thinking & Innovation for Hardware

Apply design thinking to solve real hardware problems and build prototypes.

Multidisciplinary Elective III

Explore a course beyond your core discipline.

Semester 4

Into the Cleanroom

Students learn how transistors are manufactured and step into the cleanroom for the first time, fabricating silicon devices and learning how chips are measured and quality-controlled.

Semiconductor Physics & Devices II

Covers MOSFETs and advanced devices that power modern processors.

Semiconductor Fabrication Processes I

Learn oxidation, diffusion and ion implantation, the core steps of chip making.

Signals & Systems for Semiconductor Engineers

Understand how signals are analysed and processed in electronic systems.

Metrology & Characterisation Techniques

Learn how chip features are measured and inspected at the nanoscale.

Cleanroom Lab I — Silicon Device Fabrication

Fabricate your first silicon devices in a cleanroom environment.

Statistical Methods for Process Engineering

Apply statistics to control quality and improve manufacturing yield.

Environmental Science & Semiconductor E-Waste

Examine the environmental impact of chip making and e-waste management.

Multidisciplinary Elective IV

Round out your learning with an elective that fits your ambitions.

Semester 5

Designing & Building Chips

Students begin designing digital chips using hardware description languages while mastering advanced fabrication steps such as lithography and etching, along with analog and power devices.

VLSI Design I: Digital CMOS Design & HDL

Design digital circuits and write hardware code using Verilog.

Semiconductor Fabrication Processes II

Learn lithography, etching and polishing techniques used in modern fabs.

Analog & Mixed-Signal Circuits

Design circuits that connect the digital world to real-world signals.

Power Electronics Devices

Study power MOSFETs, IGBTs and SiC devices used in EVs and energy systems.

Cleanroom Lab II — Advanced Process Integration

Combine multiple fabrication steps into integrated process flows.

Semiconductor Reliability & Failure Analysis

Learn why chips fail and how to make them last longer.

Entrepreneurship in the Semiconductor Industry

Explore the chip value chain and how semiconductor startups are built and funded.

Semester 6

Packaging, Testing & Industry Integration

Students complete the chip lifecycle, from physical design and advanced fabrication to packaging and testing, and apply AI to manufacturing data before a summer internship in industry or research.

VLSI Design II: Physical Design, STA & DFT

Turn chip designs into layouts and verify timing and testability.

Advanced Semiconductor Fabrication

Learn ALD, CVD, PVD and epitaxy used in advanced chip nodes.

Semiconductor Packaging & Assembly Technology

Understand how chips are packaged, assembled and connected to the world.

Semiconductor Testing & ATE

Learn how chips are tested at scale using automated test equipment.

Compound Semiconductors: GaN, SiC & III-V

Explore next-generation materials for power, RF and optoelectronics.

AI & Data Analytics for Semiconductor Manufacturing

Apply AI and data analytics to improve yield and quality in fabs.

Cleanroom Lab III — Full Process Flow Fabrication

Take a device through a complete fabrication process flow.

EDA Tools & Semiconductor Data Skills

Build hands-on skills in chip design tools and fab data analysis with Python.

Indian Knowledge Systems II

Connect Indian mathematics and logic to modern digital computing.

Seminar I: Semiconductor Industry Trends & Research

Explore the latest research and trends shaping the chip industry.

Summer Internship

Gain real-world experience with a semiconductor company or research lab.

Semester 7

Choose Your Specialisation

Students choose one of three specialisation tracks and go deep into their field, supported by a research internship or lab rotation and seminars on emerging semiconductor technologies.

Common to All Tracks

Research Internship / Lab Rotation

Work on live projects in an industry, fab or research lab.

Seminar II: Emerging Semiconductor Technologies

Review cutting-edge research and the future of chip technology.

Professional Elective I

Choose an advanced elective from your track's pool.

Constitution of India

Understand India's constitutional values and framework.

Track A — VLSI & Chip Design

Advanced VLSI Physical Design & Tapeout

Take a chip design all the way to tapeout.

Functional Verification: UVM & Formal

Ensure chip designs work correctly using industry verification methods.

Analog Mixed-Signal IC Design

Design complex analog and mixed-signal integrated circuits.

Track B — Fabrication & Manufacturing

EUV Lithography & Multi-Patterning

Learn the advanced lithography behind the world's smallest transistors.

Yield Engineering & Process Integration

Maximise the number of working chips from every wafer.

Advanced Packaging: 2.5D/3D IC & FOWLP

Explore advanced packaging that stacks and connects chips.

Track C — Compound Semiconductors

GaN/SiC Device Fabrication

Fabricate wide-bandgap devices for power and RF applications.

Photonics & Optoelectronics

Study light-based devices such as LEDs, lasers and photodetectors.

Wide Bandgap Power Electronics

Design high-efficiency power systems for EVs, energy and defence.

Semester 8

Capstone & Industry Readiness

The final semester brings everything together in a major capstone project or research thesis, alongside courses on semiconductor industry management, intellectual property and entrepreneurship.

Capstone Project / Research Thesis

Apply your learning to a major end-to-end semiconductor project or research thesis. (Pinnacle Project)

Seminar III: Semiconductor Entrepreneurship & Future Technologies

Explore startups, policy and the future of the chip industry.

Semiconductor Industry Management & IP Law

Learn how chip innovations are protected, managed and commercialised.

Open Elective

Choose an elective that complements your career goals.

Comprehensive Viva Voce

Demonstrate your complete understanding of the program.

Yoga & Wellness

Build balance and well-being as you step into your career.

Questions? We can read your mind

The program covers the complete life of a chip — semiconductor materials and physics, chip design (VLSI), fabrication, packaging and testing — with hands-on training in cleanroom labs and industry-standard design tools.

Yes. Through the India Semiconductor Mission, India is investing in chip fabs, packaging units and design companies, creating strong and growing demand for trained semiconductor engineers.

Students who enjoy physics, mathematics and electronics, and want to build the hardware that powers phones, computers, cars and AI, will find this program a great fit.

Students need a minimum of 50% in Class XII (ISC / CBSE / State Boards) with Mathematics and Physics, or equivalent A-Level or IB qualifications. See the eligibility section above for details.

Admission is through the uGDX Challenge followed by a personal interview. Complete the online application form to get started.

Core subjects include semiconductor physics and devices, materials science, VLSI design, fabrication processes, analog and mixed-signal circuits, packaging, testing, reliability and compound semiconductors.

Students learn how AI and data analytics are used to improve manufacturing yield, detect defects and speed up chip design, through a dedicated course and hands-on projects with Python.

Yes. The program includes three cleanroom lab courses, an electronics and device characterisation lab, and hands-on EDA tool training for chip design.

In Year 4, students choose one of three tracks: VLSI & Chip Design, Fabrication & Manufacturing, or Compound Semiconductors.

Yes. Students complete a summer internship in Year 3 and a research internship or lab rotation in Year 4, followed by a capstone project or research thesis.

Graduates can work as VLSI Design Engineers, Verification Engineers, Process Engineers, Yield Engineers, Packaging Engineers, Test Engineers and Power Electronics Engineers, or start their own hardware ventures.

Chips power almost every modern technology, from smartphones and EVs to AI and defence. As India builds its own semiconductor ecosystem, skilled engineers will be needed across design, manufacturing and packaging.

Yes. The ATLAS career services team supports students with internships, industry connections and placement opportunities across the semiconductor and electronics ecosystem.

The campus is located at Equinox Business Park, Bandra-Kurla Complex (BKC), Kurla West, Mumbai, with modern classrooms, labs and collaborative learning spaces.

It is a 4-year, full-time program spread across 8 semesters.