B.Tech Electronics & Communication Engineering (Hons.)

with specializations in Semiconductor Design & Manufacturing

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Course Level
Undergraduate
Course Fee (Annual)
INR 2,20,300
Duration
4 Years
Scholarship

This B.Tech program is not just an academic course but a strategic pathway to becoming a high-value professional in the semiconductor industry. It transforms students from theoretical learners to industry-ready innovators capable of addressing complex technological challenges in an increasingly digital world.

Eligibility

Minimum Eligibility Criteria

Pass in 10+2 examination with at least 50% marks in aggregate in 5 subjects and eligibility shall be determined based on percentage of aggregate marks in

i. English, Physics & Mathematics and

ii. One subject out of the given list* as per Note-A and

iii. One subject with the highest score out of the remaining subjects

Selection Criteria

Merit preparation / short listing of candidates shall be on the basis of score in JEE Mains / SAT / Pearson / MRNAT /XII Qualifying Examination

Programme Highlights

Covers the full semiconductor design lifecycle from device fundamentals to advanced packaging.

Includes cutting-edge domains like MEMS, Nanoelectronics, and Quantum Computing.

Incorporates modern tools like Verilog, SystemVerilog, and UVM.

Strong emphasis on design verification: and manufacturing processes

Career Path

Electronics and Communication Engineering (ECE) graduates have a wide array of career opportunities across various industries due to the following reasons:

Front-End Design Engineer Focuses on RTL design, functional verification, and synthesis of semiconductor devices.
Verification Engineer Specializes in validating chip functionality through rigorous testing using tools like SystemVerilog and UVM.
FPGA Design Engineer Develops FPGA-based solutions for specific applications, ensuring high-performance design and testing.
Test Engineer Responsible for ensuring chip quality through extensive functional and performance testing.
Semiconductor Process Engineer Works on optimizing semiconductor manufacturing processes for high-yield production.
Embedded Systems Engineer Integrates hardware and software in semiconductor chips for real-world applications.

Programme Outcomes (PO’s)

PO1

Engineering knowledge

Apply mathematics, science, and engineering fundamentals to solve complex engineering problems.

PO2

Problem Analysis

Identify, analyze, and review research literature to formulate solutions using principles of mathematics, natural sciences, and engineering sciences.

PO3

Design/development of Solutions

Design solutions and system components considering public health, safety, cultural, societal, and environmental needs.

PO4

Conduct Investigations Of Complex Problems

Use research methods, including experimental design, data analysis, and synthesis, to draw valid conclusions.

PO5

Modern Tool Usage

Apply modern tools, techniques, and IT resources for engineering activities, understanding their limitations.

PO6

The Engineer and Society

Assess societal, health, safety, legal, and cultural responsibilities informed by contextual knowledge.

PO7

Environment and Sustainability

Understand the impact of engineering solutions on society and the environment while recognizing the need for sustainable development.

PO8

Ethics

Commit to ethical principles, professional responsibilities, and norms of engineering practice.

PO9

Individual and Team Work

Work effectively as an individual, team member, or leader in diverse and multidisciplinary settings.

PO10

Communication

Communicate complex engineering activities effectively through reports, documentation, presentations, and clear instructions.

PO11

Project Management and Finance

Apply engineering and management principles to manage projects and function effectively in multidisciplinary environments.

PO12

Life-long learning

Recognize the need for continuous learning and adapt to technological advancements.

Program Specific Outcomes (PSO’s)

PSO1

Connect learning from Core and Disciplinary/Interdisciplinary elective courses in Electronics and Communication Engineering to assimilate technological advancements in the field for analyzing and designing subsystem processes to solve real-world problems.

PSO2

Acquire hardware and software skills pertinent to research and industry practices in the field of Electronics & Communications while acquiring soft skills like persistence, and proper judgment through projects and industrial interactions.

PSO3

Ability to identify Indigenous processes and components for producing high quality, compact, energy-efficient and eco-friendly solutions at affordable prices for existing and new applications directly and indirectly related to the Electronics & Communication industry.

PSO4

Focus on acquiring the right blend of aptitude and attitude to be the candidate of first choice for placements and higher education or to become a successful Entrepreneur and a worthy global citizen.

USPs

Comprehensive Coverage of VLSI Front-End Design: Master digital design techniques, logic synthesis, and functional verification. Back-End Design: Gain expertise in physical design, place-and-route, and design for manufacturing (DFM).
Industry-Relevant Skill Development Master SystemVerilog and UVM for robust chip verification. Hands-on labs with FPGA, microcontrollers, and DSP boards ensure readiness for real-world VLSI design and performance challenges.
Project-Based Learning Approach Practical, project-driven pedagogy encourages students to solve real-world semiconductor challenges. Projects cover the entire VLSI design lifecycle, from conceptualization to implementation.
Industry Integration and Mentorship Gain practical experience through internships with top semiconductor companies. Engage with industry professionals for mentorship, enhancing understanding of modern challenges in chip design and manufacturing.
Career-Ready Skills Graduates excel in ASIC design, FPGA development, semiconductor testing, and system verification. Practical skill emphasis ensures they’re ready for immediate roles in the semiconductor industry.

Benefits

This curriculum provides a holistic approach to semiconductor design and manufacturing, preparing students with both foundational knowledge and exposure to emerging technologies critical in the semiconductor industry.

Multiple laboratory courses complementing theoretical learning
6-month industrial training in the final semester
Labs covering analog, digital, verification, and specialized semiconductor technologies

Programme Structure

The curriculum offers a comprehensive pathway in semiconductor design and manufacturing, with key industry-focused courses across different semesters:

Semester 2	Fundamentals of Semiconductor Devices; Industrial Safety
Semester 3	VLSI Fundamentals; Clean Room Fundamentals; Digital System Design
Semester 4	Analog/Digital IC Design; Plasma & Industrial RF Systems; System Verilog Verification
Semester 5	Mixed Signal Design; VLSI Test Principles; Introduction to MEMS; UVM
Semester 6	Advanced Digital IC Design; Semiconductor Packaging; VLSI Physical Design