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Masters of Technology in Electronics Engineering (M.Tech Electronics Engineering)

Masters of Technology in Electronics Engineering Syllabus

The M.Tech Electronics Engineering syllabus for 2025 is designed to deepen knowledge in advanced electronic circuits, communication systems, semiconductor technology, embedded systems, robotics, and VLSI. The curriculum integrates theoretical concepts with intensive laboratory practice, research-based learning, and modern simulation tools.

Aligned with NEP 2020 and current industry standards, the course emphasizes innovation, interdisciplinary learning, and hands-on expertise in automation, IoT, microelectronics, and signal processing—ensuring graduates are equipped for high-end engineering roles in emerging technology sectors.

Table of Contents

  • Overview of M.Tech Electronics Syllabus 2025
  • Semester-Wise Syllabus Breakdown
  • Important Subjects in M.Tech Electronics
  • Core Syllabus Components
  • Elective Subjects
  • Entrance Exam Syllabus
  • Recommended Books
  • Course Structure
  • Project & Research Work
  • FAQs

Semester-Wise M.Tech Electronics Engineering Syllabus 2025

The program is typically divided into four semesters over two years. Each semester progresses from advanced theoretical foundations to specialization and research work.

Year 1: Advanced Foundation Stage

SemesterSubjects
Semester 1Advanced Digital Signal Processing, Semiconductor Device Modeling, Microcontroller & Embedded Systems, Applied Mathematics for Electronics, Research Methodology
Semester 2VLSI Design & Technology, Communication Systems Engineering, Power Electronics, Control Systems, Lab Work & Minor Project

Year 2: Specialization & Research Stage

SemesterSubjects
Semester 3RF & Microwave Engineering, IoT & Industrial Automation, Elective I, Elective II, Dissertation Phase I
Semester 4Elective III, Elective IV, Major Project / Thesis, Industry Internship & Viva-Voce

Each semester includes lab practicals, simulation sessions, circuit design assignments, and research presentations.

FAQ: What is the primary focus of the M.Tech Electronics syllabus in 2025?

The 2025 syllabus centers on advanced electronics, embedded systems, VLSI, automation, and communication technologies. It blends theoretical knowledge with practical research and simulation-based learning to prepare students for industry and R&D roles.

FAQ: Are laboratory sessions compulsory in M.Tech Electronics?

Yes, laboratory sessions, simulation software training, and circuit design workshops are integral parts of each semester. These components develop hands-on skills required for hardware, embedded systems, and semiconductor-based applications.

Important Subjects for M.Tech Electronics 2025

Major subjects include:

  • Advanced Digital Signal Processing
  • VLSI & Microelectronics
  • Embedded Systems & IoT
  • RF & Microwave Engineering
  • Control Systems
  • Power Electronics
  • Wireless & Optical Communication
  • Robotics & Automation

Core M.Tech Electronics Syllabus Components 2025

Core AreaTopics Covered
Semiconductor TechnologyMOSFETs, Fabrication, Nanoelectronics
Communication EngineeringWireless, Optical, 5G/6G
Signal ProcessingDSP Algorithms, Filters
VLSI DesignHDL, FPGA, Chip Design
Embedded SystemsMicrocontrollers, RTOS
Instrumentation & ControlSensors, Actuators, PID

Elective Subjects for Specialization (Sample List)

Elective CategorySample Elective Subjects
VLSI & Chip DesignCMOS Design, ASIC, Testing
Embedded SystemsRTOS, ARM Architectures
Robotics & AutomationIndustrial Robotics, Mechatronics
CommunicationSatellite Systems, MIMO
Signal ProcessingMachine Learning for DSP
Power ElectronicsSmart Grid, Renewable Systems

Electives allow students to tailor the program toward industry-specific domains.

Entrance Exam Syllabus for M.Tech Electronics

Entrance exams such as GATE and university tests generally include:

  • Engineering Mathematics
  • Signals & Systems
  • Digital Electronics
  • Analog Circuits
  • Networks
  • Control Systems
  • Communication
  • Electromagnetics
  • Microprocessors

Soft computing and automation concepts may also appear in updated exam patterns.

Recommended Books for M.Tech Electronics Engineering

SubjectBook & Author
VLSI DesignVLSI Design – John P. Uyemura
Signal ProcessingDigital Signal Processing – Oppenheim
Communication SystemsCommunication Systems – Simon Haykin
Embedded SystemsEmbedded System Design – Frank Vahid
Semiconductor DevicesSemiconductor Physics – S. M. Sze
Control EngineeringModern Control Engineering – Ogata

These texts support both theoretical study and advanced project work.

M.Tech Electronics Course Structure 2025

Key Highlights:

  • Duration: 2 Years (4 Semesters)
  • Evaluation: Internal & External
  • Components: Core, Electives, Labs, Research
  • Teaching Mode: Lectures, Labs, Seminars, Simulation Tools
  • Assessment: Projects, Thesis, Viva-Voce

Academic Elements:

  • Core papers
  • Electives
  • Practical & simulation labs
  • Research & dissertation
  • Industry internship

Projects & Research Work in M.Tech Electronics

Sample Project Topics:

  • FPGA-based Chip Design
  • IoT-Integrated Smart Automation
  • Wireless Power Transfer
  • Microwave Antenna Systems
  • AI for Signal Processing
  • Nanoelectronics Device Modeling

Projects can be individual or team-based and are often aligned with R&D collaborations.

FAQs about M.Tech Electronics Engineering Syllabus 2025

Q1. What programming or tools are covered in M.Tech Electronics?
Students learn HDL languages such as VHDL/Verilog, MATLAB for signal processing, LabVIEW for instrumentation, and simulation software for embedded systems. These tools enhance practical expertise in design and testing.

Q2. Can students choose electives based on specialization areas?
Yes, electives are offered from the second year onwards to allow students to specialize in domains such as VLSI, embedded systems, robotics, or communication engineering, aligning academic training with career goals.

Q3. Does the syllabus involve research and dissertation work?
Absolutely. A major part of the final year is dedicated to research and dissertation. Students work on real-time problems, experimental studies, or innovative design projects, often in partnership with industry labs.

Q4. Are internships part of the course structure?
Yes, internships are compulsory in most institutes and take place during the final semester. They provide practical exposure, industry training, and professional experience in electronics-based industries.

Q5. Does the syllabus prepare students for semiconductor and communication jobs?
Yes, the curriculum strongly focuses on VLSI, microelectronics, communication networks, and embedded technologies—making graduates job-ready for semiconductor, telecom, automation, and R&D sectors.