M.Tech in Power Electronics & Electrical Drives (M.Tech PEED) is a two-year postgraduate engineering program that focuses on the design, control, analysis, and application of power electronic converters and electrical drive systems. The program equips students with advanced knowledge of power semiconductor devices, electrical machines, motor drives, digital control systems, renewable energy integration, electric vehicles (EVs), smart grids, and industrial automation. Students gain hands-on experience through laboratory work, simulation, research projects, and industry-oriented training.
M.Tech in Power Electronics & Electrical Drives (M.Tech PEED) is a two-year postgraduate engineering program that focuses on the design, control, analysis, and application of power electronic converters and electrical drive systems. The program equips students with advanced knowledge of power semiconductor devices, electrical machines, motor drives, digital control systems, renewable energy integration, electric vehicles (EVs), smart grids, and industrial automation. Students gain hands-on experience through laboratory work, simulation, research projects, and industry-oriented training.
Admission is generally based on:
Qualified candidates participate in counseling and select their preferred specialization and institution.
Candidates submit original documents for verification.
After successful verification, candidates pay the admission fee to confirm their seat.
Candidates must generally fulfill the following requirements:
The program includes:
Graduates of M.Tech in Power Electronics & Electrical Drives have excellent career opportunities in power, energy, transportation, manufacturing, and automation industries.
The syllabus may vary by university but generally includes the following subjects:
M.Tech in Power Electronics & Electrical Drives is a two-year postgraduate engineering program that focuses on power electronic converters, electrical machines, motor drives, control systems, renewable energy, electric vehicles (EVs), and industrial automation. It prepares students for advanced technical and research careers in the electrical engineering field.
Candidates must have a B.E./B.Tech degree in Electrical Engineering, Electrical & Electronics Engineering (EEE), Electronics & Communication Engineering (ECE), Instrumentation Engineering, Power Engineering, or a related discipline from a recognized university with the minimum required marks as specified by the institution.
Not always. Many premier institutes require a valid GATE score for admission, while several universities and private institutions also offer admission through state-level entrance examinations or based on merit in the qualifying degree.
The program is generally completed in 2 years, divided into 4 semesters, including coursework, laboratory sessions, seminars, and a major project.
The curriculum typically includes Advanced Power Electronics, Electrical Drives, Power Semiconductor Devices, Digital Control Systems, Electrical Machines, Renewable Energy Systems, Smart Grid Technology, Electric Vehicle Technology, Embedded Systems, Industrial Automation, and research project work.
Graduates can work as Power Electronics Engineers, Electrical Drives Engineers, EV Engineers, Power System Engineers, Control Systems Engineers, Automation Engineers, Embedded Systems Engineers, Design Engineers, Research Engineers, and Assistant Professors.
Graduates are employed in power generation companies, renewable energy firms, electric vehicle manufacturers, industrial automation companies, smart grid projects, railways, aerospace, defense organizations, research laboratories, electrical equipment manufacturers, and government organizations.
Yes. After completing M.Tech PEED, students can pursue a Ph.D. in Electrical Engineering, Power Electronics, Power Systems, Electrical Drives, Renewable Energy, Smart Grid Technology, or related research areas.
Yes. With increasing demand for electric vehicles, renewable energy systems, smart grids, and industrial automation, M.Tech PEED offers excellent career prospects, competitive salaries, and opportunities for research and innovation.
Students should have strong analytical and problem-solving skills, a solid understanding of electrical engineering fundamentals, knowledge of power electronics and control systems, proficiency in simulation software such as MATLAB/Simulink, programming skills, and an interest in emerging technologies like EVs, renewable energy, and automation.