The Master of Technology (M.Tech.) in Electrical Engineering is a two-year postgraduate program spread across four semesters. This course aims to provide students with advanced technical knowledge, research skills, and hands-on experience in core areas like power systems, control systems, electronics, high-voltage engineering, renewable energy, and automation. The program is designed to prepare graduates for careers in academia, research, and industries such as power generation, manufacturing, renewable energy, and electronics.

Key highlights of the program:

• Duration: 2 Years (4 Semesters)
• Mode: Semester System
• Level: Postgraduate
• Eligibility: B.Tech/B.E in Electrical Engineering or related field
• Specializations: Power Systems, Control Systems, Power Electronics, Renewable Energy, etc.
• Focus Areas: Advanced mathematics, modeling, simulations, real-world applications
• Outcome: Ability to solve complex engineering problems and conduct independent research

M.Tech in Electrical Engineering combines theoretical depth with practical problem-solving abilities. The syllabus balances fundamentals with cutting-edge developments like smart grids, AI applications, and renewable integration.

2. Exam & Course Overview

The course structure follows a credit-based system, with internal and external assessments. The evaluation pattern includes assignments, lab work, mid-semester exams, and end-semester exams.

Parameter	Details
Duration	2 Years (4 Semesters)
Total Credits	~90–100
Assessment Pattern	Internal (40%) + External (60%)
Core Components	Theory, Labs, Seminars, Project/Dissertation
Project Requirement	Yes, mandatory in 3rd & 4th semesters

3. Semester-wise Subjects and Topics

Semester 1

Subject	Credits	Assessment	Topics Covered
Advanced Engineering Mathematics	4	Internal + External	Linear algebra, calculus, eigenvalues, matrix theory, differential equations
Advanced Power System Analysis	4	Internal + External	Load flow studies, system stability, modeling, economic operation
High Voltage Transmission Systems	4	Internal + External	EHV AC, HVDC principles, insulation coordination, corona effects
Elective I	4	Varies	Depends on specialization – e.g., power electronics, control systems
Lab/Seminar	2	Practical Evaluation	Software tools, modeling, simulations

Semester 2

Subject	Credits	Assessment	Topics Covered
Power System Operation & Control	4	Internal + External	Load dispatch, frequency control, optimization, SCADA integration
Power System Instrumentation	4	Internal + External	Sensors, transducers, SCADA systems, real-time monitoring
Advanced Power System Protection	4	Internal + External	Relays, circuit breakers, protection coordination, digital protection
Elective II	4	Varies	Depends on specialization
Seminar/Project Stage I	2	Presentation & Report	Research proposal preparation, literature review

Semester 3

Subject	Credits	Assessment	Topics Covered
Elective III	4	Internal + External	Advanced topics based on specialization
Elective IV	4	Internal + External	Smart grids, renewable systems, microgrids
Laboratory Work	4	Practical + Viva	Advanced lab experiments, hardware simulations
Project Work (Phase I)	6	Evaluation & Report	Research design, simulation, prototyping

Semester 4

Subject	Credits	Assessment	Topics Covered
Project Work (Phase II)	14	Thesis Submission & Viva	Implementation, testing, documentation, results analysis
Viva-Voce/Seminar	4	Oral Examination	Defense of project work, expert review

4. Detailed Topic Descriptions

• Advanced Engineering Mathematics: Tools for solving engineering problems—linear algebra, differential equations, numerical methods.
• Advanced Power System Analysis: Modeling, load flow, stability, and optimization techniques.
• High Voltage Transmission Systems: Study of modern high-voltage transmission and insulation design.
• Instrumentation: Principles of measurement, data acquisition, and real-time monitoring.
• Protection Systems: Protective device coordination, modern relay technology, fault analysis.
• Electives: Specializations in areas like AI in power systems, renewable integration, digital signal processing, robotics.

5. Marks Distribution

Component	Internal Marks	External Marks	Total Marks
Theory Papers	40	60	100
Labs	50	50	100
Seminar	50	50	100
Project	50	150	200

6. Recommended Books

Subject	Book Title	Author
Control Systems	Modern Control Engineering	Katsuhiko Ogata
Power Systems	Power System Engineering	Nagrath & Kothari
Renewable Energy	Renewable Energy Sources	Kothari, Singal & Ranjan
Soft Computing	Neural Networks, Fuzzy Logic, and Genetic Algorithms	Rajasekaran & Pai
High Voltage Engg.	High Voltage Engineering	M.S. Naidu & V. Kamaraju

7. Preparation Tips

• Understand Core Concepts: Master mathematics, power systems, electronics.
• Practice Software Tools: MATLAB, ETAP, PSIM, DIgSILENT.
• Focus on Electives: Choose electives strategically for career alignment.
• Research Early: Begin literature surveys and project planning in 2nd semester.
• Stay Industry-Updated: Attend seminars, webinars, and industry conferences.
• Mock Presentations: Improve seminar delivery and viva performance.

8. Specializations Available

Specialization	Description
Power Systems	Focus on design, stability, and optimization of grid systems
Power Electronics & Drives	Advanced converters, drives, renewable integration
Control Systems	Automation, robotics, AI-driven control
Renewable Energy	Solar, wind, bioenergy, hybrid energy systems
Instrumentation	Sensors, data acquisition, industrial automation

9. Conclusion

The M.Tech Electrical Engineering 2025 syllabus blends advanced theory, practical skills, and research experience to prepare graduates for complex engineering challenges. With a structured balance of core and elective subjects, along with mandatory project work, students are equipped to contribute to academia, R&D, or high-demand industrial sectors. Specializations allow for career-focused study, ensuring graduates are industry-ready.

10. FAQs

Q1: Do all universities follow the same syllabus?
A: No, while core subjects are consistent, electives and credit structures vary.

Q2: Is project work mandatory?
A: Yes, it is crucial for skill application and research exposure.

Q3: Which software tools are essential?
A: MATLAB, PSIM, ETAP, SCADA-related tools.

Q4: Can I specialize in Renewable Energy?
A: Yes, many institutions offer it as an elective or major.

Q5: How is assessment done?
A: Internal (assignments, tests) + External (semester exams, practicals).