Semester 1: Foundation in Basic Sciences (Focus: Engineering Fundamentals)
Subject
Chapters/Topics
Brief Description
Engineering Mathematics I
1. Differential Calculus (limits, partial derivatives).
2. Integral Calculus (definite integrals, applications).
3. Vector Calculus (gradient, divergence, curl).
4. Ordinary Differential Equations (first-order, linear).
Mathematical tools for modeling electrical circuits and electromagnetic fields.
Engineering Physics
1. Mechanics (Newton’s laws, work-energy).
2. Electromagnetic Waves.
3. Quantum Physics (basic concepts).
4. Optics and Lasers.
Physical principles for electromagnetism and semiconductor devices.
Engineering Chemistry
1. Atomic/Molecular Structure.
2. Electrochemistry (batteries, corrosion).
3. Polymers and Insulators.
4. Chemical Thermodynamics
Chemical foundations for battery design and insulation materials.
Basic Electrical Engineering
1. DC Circuits (Ohm’s law, Kirchhoff’s laws).
2. AC Circuits (phasors, impedance).
3. Magnetic Circuits.
4. Single-Phase Transformers.
Introduction to circuit analysis and basic electrical components.
Engineering Graphics
1. Orthographic Projections.
2. Isometric Views.
3. Development of Surfaces.
Technical drawing for electrical machine and circuit layouts.
Labs
Physics/Chemistry Labs, Electrical Circuits Lab.
Experiments on circuit measurements and electrochemical properties.
Semester 2: Advanced Foundations (Focus: Mechanics and Computing)
Engineering Mathematics II
1. Partial Differential Equations (wave, heat equations).
2. Complex Analysis (contour integration).
3. Laplace Transforms.
4. Fourier Series.
Advanced math for signal processing and control systems.
Engineering Mechanics
1. Statics (equilibrium, trusses).
2. Dynamics (kinematics, kinetics).
3. Friction and Centroids.
Fundamentals for analyzing forces in electrical machinery like motors.
Basic Mechanical Engineering
1. Thermodynamics (laws, cycles).
2. Fluid Mechanics (flow, viscosity).
3. Machine Elements (gears, bearings).
Basics for cooling systems and mechanical components in generators.
Computer Programming
1. C/C++ Basics (loops, functions).
2. Arrays and Pointers.
3. File Handling.
4. Numerical Methods (coding).
Programming for simulation tools like MATLAB or circuit design software.
Labs
Programming Lab, Mechanics Lab.
Coding for numerical analysis and force/stress experiments.
Semester 3: Core Electrical Principles (Focus: Circuits and Electronics)
Electrical Circuit Analysis
1. Network Theorems (Thevenin, Norton).
2. Transient Analysis (RL, RC circuits).
3. Three-Phase Circuits.
4. Resonance and Filters.
Analysis of complex electrical networks for power and signal applications.
Analog Electronics
1. Diodes and Applications.
2. BJT and FET Amplifiers.
3. Operational Amplifiers.
4. Oscillators.
Fundamentals of electronic devices for signal amplification and processing.
Engineering Mathematics III
1. Numerical Methods (Newton-Raphson, Runge-Kutta).
2. Linear Algebra (matrices, eigenvalues).
3. Probability and Statistics.
Tools for circuit simulation and reliability analysis.
Electromagnetic Fields
1. Electrostatics (Coulomb’s law, Gauss’s law).
2. Magnetostatics (Biot-Savart law).
3. Maxwell’s Equations.
4. Electromagnetic Waves.
Principles governing electric and magnetic fields in motors and transformers.
Signals and Systems
1. Signal Classification.
2. Fourier Series and Transforms.
3. Laplace and Z-Transforms.
4. System Response.
Analysis of signals for communication and control systems.
Labs
Analog Electronics Lab, Circuit Analysis Lab.
Experiments on amplifiers, filters, and network theorems.
Semester 4: Electrical Machines and Measurements (Focus: Machines and Instrumentation)
Electrical Machines I
1. Magnetic Circuits.
2. Single-Phase Transformers.
3. DC Machines (motors, generators).
4. Performance Characteristics.
Design and operation of transformers and DC machines for power applications.
Digital Electronics
1. Number Systems and Logic Gates.
2. Combinational Circuits.
3. Sequential Circuits (flip-flops, counters).
4. Memory Devices.
Digital systems for control and automation in electrical engineering.
Electrical Measurements
1. Measuring Instruments (ammeter, voltmeter).
2. Bridges (Wheatstone, Maxwell).
3. Transducers and Sensors.
4. Energy Metering.
Techniques for accurate measurement of electrical parameters.
Network Analysis and Synthesis
1. Two-Port Networks.
2. Network Functions.
3. Filter Design.
4. Network Synthesis.
Advanced circuit analysis for designing electrical networks.
Elective I (e.g., Renewable Energy Systems)
1. Solar Energy Systems.
2. Wind Energy Systems.
3. Energy Storage.
Introduction to sustainable energy technologies.
Labs
Electrical Machines Lab, Digital Electronics Lab.
Experiments on transformer efficiency and logic gate circuits.
Semester 5: Power and Control Systems (Focus: Power Generation and Control)
Electrical Machines II
1. Three-Phase Induction Motors.
2. Synchronous Machines.
3. Single-Phase Motors.
4. Special Machines (stepper, BLDC).
Operation and control of AC machines for industrial applications.
Power Systems I
1. Power Generation Systems.
2. Transmission Line Parameters.
3. Load Flow Analysis.
4. Fault Analysis.
Fundamentals of power generation and transmission networks.
Control Systems
1. Open/Closed Loop Systems.
2. Transfer Functions.
3. Stability Analysis (Routh-Hurwitz).
4. PID Controllers.
Design of control systems for automation and stability.
1. 8085/8086 Architecture.
2. Instruction Set and Programming.
3. Interfacing Techniques.
4. Microcontroller Basics (8051).
Microprocessors and Microcontrollers
Embedded systems for automation and control applications.
Elective II (e.g., Power Electronics)
1. Power Semiconductor Devices.
2. Rectifiers and Inverters.
3. Choppers and Cycloconverters.
Electronic circuits for power control in drives and converters.
Labs
Control Systems Lab, Power Systems Lab.
Experiments on PID control and load flow simulations.
Semester 6: Advanced Power and Electronics (Focus: Distribution and Automation)
Power Systems II
1. Power Distribution Systems.
2. Protection Systems (relays, circuit breakers).
3. Power System Stability.
4. Economic Load Dispatch.
Design and operation of power distribution and protection systems.
Power Electronics
1. Thyristors and IGBTs.
2. DC-DC Converters.
3. Inverters and UPS Systems.
4. Motor Drives.
Electronic control of power for efficient energy conversion.
Digital Signal Processing
1. Discrete-Time Signals.
2. Fourier and Z-Transforms.
3. Digital Filters.
4. DSP Applications.
Signal processing for communication and control systems.
Electrical Machine Design
1. Transformer Design.
2. Rotating Machine Design.
3. Magnetic Circuit Design.
4. Thermal Considerations.
Designing electrical machines for specific applications.
Elective III (e.g., High Voltage Engineering)
1. Breakdown in Gases/Liquids.
2. High Voltage Testing.
3. Insulation Coordination
Principles for high-voltage equipment and safety.
Labs
Power Electronics Lab, DSP Lab.
Experiments on inverters and digital signal processing.
Semester 7: Industrial Applications (Focus: System Integration and Management)
Switchgear and Protection
1. Circuit Breakers.
2. Protective Relays.
3. Overcurrent Protection.
4. Distance Protection.
Protection mechanisms for power system reliability and safety.
Embedded Systems
1. ARM Architecture.
2. Real-Time Operating Systems.
3. Embedded Programming.
4. IoT Applications.
Advanced embedded systems for automation and smart grids.
Electric Drives
1. DC Motor Drives.
2. AC Motor Drives (VFDs).
3. Servo and Stepper Drives.
4. Drive Control Techniques.
Control of motors for industrial and electric vehicle applications.
Elective IV (e.g., Smart Grid Technology)
1. Smart Grid Architecture.
2. Renewable Integration.
3. Demand Response.
Modern power grid technologies for efficiency and sustainability.
Industrial Training/Project
N/A
6-8 week internship; mini-project on power systems or automation.
Semester 8: Capstone and Specialization (Focus: Innovation and Professional Practice)
Major Project
N/A
Industry-relevant project, e.g., designing a smart grid system or motor controller.
Seminar
Literature Review and Presentation.
Presentation on trends like IoT in power systems or electric vehicles.
Elective V (e.g., Electric Vehicle Technology)
1. EV Powertrains.
2. Battery Management Systems.
3. Charging Infrastructure.
Focus on electric vehicle design and energy systems.
Professional Practice
1. Engineering Ethics.
2. Project Management.
3. Industrial Economics.
Prepares for professional roles with ethical and managerial skills.
Comprehensive Viva
N/A
Oral exam covering the entire curriculum.