B.Tech. in Electronics and Electrical Engineering
Build integrated electronic and electrical systems for power, automation and sustainable infrastructure—from circuits and embedded platforms to drives, control and intelligent energy.
Engineering intelligent energy systems
The B.Tech. programme in Electronics and Electrical Engineering prepares students for careers in the electronics, communication and IT industries. Its internationalised curriculum is aligned with statutory requirements and national and international accreditation expectations.
Academic laboratories, centres of excellence and project environments support learning in electric vehicles, renewable-energy applications, automation, robotics, AI and industrial systems. The programme prepares graduates for professional careers, higher studies, research and entrepreneurship.
Power systems
Generation, transmission, distribution, protection and intelligent grid operation.
Machines & drives
Electrical machines, power electronics, electric drives and industrial applications.
Control & automation
Instrumentation, embedded control, IoT and industrial automation systems.
Innovation
Electric vehicles, renewable energy, AI, robotics and research-led projects.
Eligibility criteria
Applicants should review the current KIIT admission rules before applying.
Full admission information- 01
Candidates who have completed or are appearing for a 10+2 examination or equivalent may apply for the four-year B.Tech. programme.
- 02
Applicants should have studied in regular, full-time formal education during school or college.
- 03
A minimum of 60% taken together in Physics, Chemistry and Mathematics at 10+2 or equivalent is required.
What the programme prepares you to do
Explore the educational objectives, graduate outcomes and programme-specific capabilities.
Lead successful careers, pursue entrepreneurship, solve problems in electronic system design for power systems and power electronic drives, or undertake advanced study.
Use knowledge, skills and resources to devise creative engineering solutions in multidisciplinary environments while following ethical practices.
Develop an attitude of lifelong learning and apply and adapt new ideas as technology evolves.
Engineering knowledge
Apply mathematics, science, engineering fundamentals and specialised knowledge to complex engineering problems.
Problem analysis
Identify, formulate and analyse complex problems using first principles and relevant research literature.
Design and development
Design solutions, components or processes with appropriate health, safety, cultural, societal and environmental consideration.
Investigation
Use research methods, experiments, data analysis and synthesis to reach valid conclusions.
Modern tool usage
Select and apply suitable engineering and IT tools, understanding their capabilities and limitations.
Engineer and society
Assess societal, health, safety, legal and cultural considerations and professional responsibilities.
Sustainability
Understand the societal and environmental impact of engineering solutions and the need for sustainable development.
Ethics
Apply ethical principles and uphold professional responsibilities and engineering practice.
Individual and team
Work effectively as an individual, team member or leader in diverse multidisciplinary teams.
Communication
Write, present, comprehend and exchange clear technical information with professional and public audiences.
Project management
Apply engineering and management principles to personal work, teams and multidisciplinary projects.
Lifelong learning
Recognise and pursue independent learning in the broad context of technological change.
Design and implement electrical and electronic circuits, electrical drives and power-system control for industrial applications.
Conduct research in automation and control, embedded systems and related technologies.
Design complex products with suitable tools for societal and engineering needs and communicate effectively in groups.
Curriculum & brochure
Access the current documents published by the School.
Laboratories
Purpose-built environments support learning from foundational circuits and measurement to machines, control, signal processing and intelligent electrical systems.