Electrical and Electronics Engineering focuses on the generation, transmission, distribution and efficient utilization of electrical energy while integrating modern electronics, automation and control technologies. Students gain strong theoretical knowledge and practical skills to design, analyze and maintain electrical systems used across industries.
How the degree evolves year by year
Electrical and Electronics Engineering focuses on the generation, transmission, distribution and efficient utilization of electrical energy while integrating modern electronics, automation and control technologies. Students gain strong theoretical knowledge and practical skills to design, analyze and maintain electrical systems used across industries.
What you'll study each semester
Build a strong mathematical foundation through calculus, linear algebra and analytical techniques used in electrical engineering.
Study electricity, magnetism, semiconductors and modern physics concepts essential for electrical engineering.
Understand chemical principles related to engineering materials, batteries, corrosion and electrical applications.
Learn engineering drawing principles and create technical drawings using computer-aided design software.
Explore the fundamentals of electrical circuits, electrical machines, electronics and modern electrical engineering applications.
Develop logical thinking and problem-solving skills through programming fundamentals using Python.
Gain practical experience with electrical circuits, electronic components and basic engineering workshop practices.
Develop awareness of physical fitness, mental well-being and healthy lifestyle practices.
Develop communication, teamwork, leadership and professional skills essential for engineers.
Study advanced mathematical concepts including differential equations, vector calculus and numerical methods used in electrical engineering.
Study electricity, magnetism, semiconductors and modern physics concepts essential for electrical engineering.
Understand chemical principles related to engineering materials, batteries, corrosion and electrical applications.
Learn computer hardware, operating systems, networking fundamentals and the basics of web technologies.
Study forces, equilibrium, motion and mechanics principles applied in engineering systems.
Learn structured programming, problem-solving and software development using the C programming language.
Understand entrepreneurship, innovation and intellectual property rights for engineering professionals.
Develop awareness of physical health, mental well-being and healthy lifestyle practices.
Develop communication, teamwork, leadership and professional skills essential for engineering careers.
Gain practical experience with computer systems, networking, office applications and basic programming tools.
Study electrical measuring instruments, sensors and measurement techniques used in electrical engineering applications.
Study advanced mathematical concepts including differential equations, probability and numerical methods used in electrical engineering.
Learn the analysis of AC and DC circuits, network theorems and electrical network behavior.
Study the construction, operation, testing and applications of DC machines and transformers.
Understand semiconductor devices, amplifiers and analog electronic circuits used in electrical systems.
Learn the fundamentals of artificial intelligence, machine learning and data-driven engineering applications.
Understand engineering economics, cost estimation and financial decision-making in engineering projects.
Learn professional ethics, environmental responsibility and sustainable engineering practices.
Perform practical experiments on electrical circuits, network analysis and electrical measurement techniques.
Gain practical experience in analog electronic circuits, amplifiers and semiconductor devices.
Study advanced mathematical techniques used for solving electrical engineering and signal processing problems.
Learn the construction, operation, control and performance of synchronous and induction machines.
Study power electronic converters, motor drives and speed control techniques used in industrial applications.
Understand digital logic circuits, combinational and sequential systems used in modern electronics.
Understand engineering economics, cost estimation and financial decision-making in engineering projects.
Learn professional ethics, environmental responsibility and sustainable engineering practices.
Perform experiments on DC machines and transformers to understand their characteristics, testing and performance.
Choose any ONE Professional Elective offered by the Electrical and Electronics Engineering department to develop expertise in a specialized area such as renewable energy, instrumentation, embedded systems or advanced electrical technologies.
Study electrical power generation, transmission, distribution and protection systems used for reliable power delivery.
Understand electric and magnetic fields, electromagnetic waves and their applications in electrical engineering.
Learn the analysis of continuous and discrete signals, linear systems and signal processing fundamentals.
Study microprocessor architecture, embedded systems and their applications in modern electrical and electronic devices.
Perform experiments on AC machines to study their characteristics, operation and performance.
Gain practical experience in programming microprocessors and developing embedded system applications.
Choose any ONE Professional Elective offered by the Electrical and Electronics Engineering department to specialize in areas such as Electric Vehicles, Energy Storage, Digital Systems or Machine Learning.
Study feedback control systems, system stability, controllers and their applications in engineering systems.
Learn the design, planning, costing and estimation of electrical installations for residential, commercial and industrial applications.
Perform experiments on control systems to analyze system response, stability and controller performance.
Gain practical experience with power system analysis, protection equipment and electrical power system operation.
Choose any ONE Professional Elective offered by the Electrical and Electronics Engineering department to gain expertise in advanced areas such as High Voltage Engineering, Digital Protection, IoT or Digital Signal Processing.
Choose any ONE Open Elective from the university's approved interdisciplinary courses to broaden your knowledge beyond Electrical and Electronics Engineering.
Choose any ONE Professional Elective offered by the Electrical and Electronics Engineering department to specialize in advanced areas such as Power Systems, Control Systems, Electric Machines, Power Quality or Artificial Intelligence.
Choose any ONE Open Elective from the university's approved interdisciplinary courses to broaden your knowledge in emerging technologies such as Electric Vehicles, Energy Storage and Solar PV Systems.
Choose any ONE Professional Elective to gain advanced knowledge in Smart Grids, HVDC, FACTS, Mechatronics or Electronic Communication systems.
Choose any ONE Open Elective from the university's approved interdisciplinary courses to develop additional skills in Robotics, PLCs, Automation or Mechatronic Systems.
What you can do after completing this course
Where graduates typically go
Design, operate and maintain electrical systems used in industries, buildings and utilities.
Work on power generation, transmission, distribution and electrical grid management.
Develop automated systems using PLCs, sensors and industrial control technologies.
Design and develop power converters, motor drives and energy-efficient electrical systems.
Develop and maintain solar, wind and other renewable energy systems.
Maintain electrical equipment, machinery and industrial power systems.
Design electrical layouts, wiring systems and industrial electrical installations.
Plan, coordinate and manage electrical engineering projects from design to implementation.
Where you can go next
Pursue advanced studies in core electrical engineering with specialization in power systems, control systems and electrical machines.
Develop expertise in power generation, transmission, distribution, smart grids and power system protection.
Study advanced power converters, motor drives and energy-efficient electrical systems used in modern industries.
Pursue a Master's degree in countries like Germany, the USA, Canada or Australia with opportunities for research and global careers.
Combine engineering knowledge with management skills for careers in operations, consulting, project management and business leadership.
Prepare for the GATE examination to pursue higher studies or secure jobs in Public Sector Undertakings (PSUs).
Pursue doctoral research in advanced electrical engineering and contribute to innovation in academia and industry.
Things students often get wrong about this course
EEE also includes electronics, automation, control systems, embedded systems and renewable energy technologies.
They work in industries such as power, automation, robotics, electric vehicles, manufacturing, telecommunications and software.
EEE graduates are in demand across public and private sectors, including renewable energy, smart grids, automation and electric mobility.
The program includes extensive laboratory work, industrial training, simulations and practical projects to build hands-on engineering skills.
Answers to common questions students ask