A future-ready programme that fuses strong foundations in Electrical Engineering with cutting-edge AI integration — empowering students to excel in emerging domains like EV Technology, Industrial Automation, Smart Grids, Renewable Energy, Robotics and Embedded Systems.
The B.Tech in Electrical & Electronics Engineering at Amal Jyothi is engineered to stand apart. Grounded in fundamentals and enhanced with modern interdisciplinary integration, it offers real academic flexibility:
4 Years · 8 Semesters
Progressive depth from Year 1 fundamentals to Year 4 industry-ready projects.
170 Credits
Balanced across core PCC, professional electives, honours pathways and projects.
4 Elective Groups · 26 Options
Industry-linked electives bridging engineering and industry needs.
Explore multiple Minor options and pursue distinct Honours pathways aligned with career goals.
Industry-linked electives and collaborations with leading companies for internships and co-developed learning.
B.Tech EEE is NBA re-accredited with validity through 2026, affirming quality outcomes-based education.
The programme is designed to deliver excellence through innovation, industry relevance and future-ready skills — empowering students to excel in:
Electric vehicles, battery management, charging infrastructure and electric drive systems.
PLC, SCADA, smart manufacturing, robotics and intelligent control systems.
Intelligent power networks, distributed energy systems and grid analytics.
Solar, wind, fuel cells, energy storage and grid-integration technologies.
Intelligent systems, automation, AI-driven control and machine learning in power.
Microcontrollers, IoT, real-time systems and edge computing applications.
The curriculum is built on seven distinct pillars — each aligned with tomorrow's engineering needs:
Artificial Intelligence woven into electrical, power, control and embedded subjects from early semesters.
Dedicated streams on electric mobility, drive systems, battery tech and charging infrastructure.
Renewable energy, smart grids, storage and energy economics anchored in the core curriculum.
Microcontrollers, IoT, digital design and FPGA/SOPC platforms for real-time intelligent applications.
Centres of Excellence and industry-supported infrastructure bring real-world context into every lab.
Technical skills + soft skills + teamwork — preparing graduates for professional careers.
Linkages with incubation centres and start-up ecosystem for students with entrepreneurial ambition.
The curriculum is built on a strong foundation of Electrical and Electronics Engineering, enhanced with modern interdisciplinary integration:
Applying ML and AI to electrical engineering problems — predictive maintenance, optimisation and intelligent control.
Data-driven insights for grid operation, demand forecasting and renewable-energy integration.
Modern control theory applied with AI — from process plants to autonomous systems.
Laboratory experiments integrating AI techniques with traditional control and power systems.
Digital hardware design, FPGA, microcontroller-based systems and real-time applications.
Flexible pathways that allow students to specialise in areas aligned with their interests and career goals:
The department offers advanced, industry-supported facilities that provide hands-on learning beyond the classroom:
Access to EDA tools for VLSI, FPGA and high-frequency design — industry-grade chip-design exposure.
System modelling, signal processing and control analysis with industry-standard simulation tools.
Dedicated facilities for IoT, Biomedical (SCBMI) and Project Prototyping.
Microcontroller kits, fabrication facilities and solar PV systems for experiential learning.
Utilisation
Students gain expertise in high-growth, industry-relevant domains — preparing them for diverse and future-ready career opportunities across core and emerging sectors:
EV systems, battery technology and drive control.
Intelligent power networks and energy analytics.
PLC, SCADA and smart manufacturing systems.
Automation and AI-driven control.
Machine learning for energy systems and analytics.
Microcontrollers, IoT and real-time applications.
Solar, wind and energy storage systems.
VLSI design, FPGA systems and chip development.
The programme prepares students for diverse career pathways — ensuring strong employability and long-term growth:
A learning approach centred on employability — from core roles to emerging industries.
Collaborations with leading power, automation, EV and semiconductor companies.
Every semester pairs theory with design-first labs and mini / major projects.
Exposure to industry challenges through consultancy, industry visits and collaborative projects.
AI integration across the curriculum prepares graduates for where the industry is heading next.