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Electrical Enginnering Syllabus:


Electrical Enginnering Syllabus



 Semester 1

  1. Mathematics I

    • Linear Algebra: Matrix Algebra, Systems of Linear Equations, Eigenvalues and Eigenvectors
    • Calculus: Functions of Single Variable, Limit, Continuity, and Differentiability
    • Differential Equations: First Order Equations (Linear and Non-linear), Higher Order Linear Differential Equations with Constant Coefficients
    • Complex Variables: Analytic Functions, Cauchy’s Integral Theorem, Taylor and Laurent Series

  2. Physics I

    • Mechanics: Newton’s Laws, Work and Energy, Rotational Motion
    • Waves and Oscillations: Simple Harmonic Motion, Damped and Forced Oscillations
    • Electromagnetic Theory: Coulomb’s Law, Electric Field, Gauss’s Law

  3. Basic Electrical Engineering

    • DC Circuits: Kirchhoff’s Laws, Network Theorems
    • AC Circuits: Single Phase AC Circuits, Resonance
    • Electromagnetism: Magnetic Circuits, Transformers

  4. Introduction to Computer Programming

    • Basics of C/C++ Programming: Variables, Data Types, Operators
    • Control Structures: Loops, Conditional Statements
    • Functions, Pointers, Arrays, and Strings

  5. Engineering Graphics

    • Orthographic Projections, Isometric Projections
    • Sections of Solids, Development of Surfaces

Semester 2

  1. Mathematics II

    • Vector Calculus: Gradient, Divergence, Curl, Line Integrals, Surface Integrals
    • Probability and Statistics: Probability Distributions, Mean, Median, Mode, Standard Deviation
    • Fourier Series and Transforms: Fourier Series, Fourier Transform

  2. Physics II

    • Optics: Interference, Diffraction, Polarization
    • Modern Physics: Quantum Mechanics, Atomic and Nuclear Physics
    • Solid State Physics: Crystal Structures, Band Theory

  3. Basic Electronics Engineering

    • Diodes and Applications: Rectifiers, Clipping and Clamping Circuits
    • Transistors: BJT, FET, Biasing, Amplifiers
    • Operational Amplifiers: Characteristics, Applications

  4. Engineering Mechanics

    • Statics: Equilibrium of Forces, Trusses, Frames
    • Dynamics: Kinematics and Kinetics of Particles and Rigid Bodies

  5. Environmental Studies

    • Ecosystems, Biodiversity, and its Conservation
    • Environmental Pollution: Types, Sources, Effects, and Control Measures

Semester 3

  1. Mathematics III

    • Partial Differential Equations: Formulation, Solutions
    • Numerical Methods: Solution of Non-linear Equations, Interpolation, Numerical Integration
    • Transform Techniques: Laplace Transform, Z-Transform

  2. Electrical Circuit Analysis

    • Network Theorems: Superposition, Thevenin, Norton, Maximum Power Transfer
    • AC Circuit Analysis: Phasor Diagrams, Impedance, Admittance
    • Transient Response: RL, RC, and RLC Circuits

  3. Analog Electronics

    • Amplifiers: Small Signal, Power Amplifiers
    • Oscillators: Criteria for Oscillation, RC, LC, Crystal Oscillators
    • Feedback Amplifiers: Concepts, Stability, and Compensation

  4. Digital Electronics

    • Boolean Algebra: Logic Gates, Simplification
    • Combinational and Sequential Circuits: Adders, Subtractors, Counters, Shift Registers
    • Microprocessors: Architecture, Programming, Interfacing

  5. Electromagnetic Fields

    • Electrostatics: Electric Field, Potential, Capacitance
    • Magnetostatics: Magnetic Field, Inductance
    • Electromagnetic Waves: Maxwell’s Equations, Wave Propagation

Semester 4

  1. Electrical Machines I

    • Transformers: Equivalent Circuit, Phasor Diagrams, Efficiency
    • DC Machines: Construction, Operation, Characteristics, and Performance
    • Induction Machines: Types, Construction, Equivalent Circuit

  2. Control Systems

    • Transfer Function: Block Diagrams, Signal Flow Graphs
    • Time and Frequency Domain Analysis: Transient Response, Bode Plots, Nyquist Criteria
    • Stability: Routh-Hurwitz, Root Locus

  3. Power Systems I

    • Power Generation: Thermal, Hydro, Nuclear, Renewable Sources
    • Transmission and Distribution: Line Parameters, Performance of Lines
    • Load Flow Analysis: Methods, Solutions

  4. Electrical Measurements and Instrumentation

    • Measurement of Voltage, Current, Power, Energy
    • Instrument Transformers: CT, PT
    • Transducers: Types, Applications

  5. Microprocessors and Microcontrollers

    • Microprocessor Architecture: 8085, 8086
    • Assembly Language Programming
    • Microcontroller 8051: Architecture, Programming, Interfacing

Semester 5

  1. Electrical Machines II

    • Synchronous Machines: Construction, Operation, V-Curve
    • Special Machines: Stepper Motors, Servo Motors
    • Machine Dynamics: Electromechanical Energy Conversion

  2. Power Electronics

    • Power Semiconductor Devices: Diodes, Thyristors, IGBTs
    • Converters: Rectifiers, Inverters, Choppers
    • Applications: Motor Drives, Power Supplies

  3. Power Systems II

    • Fault Analysis: Symmetrical and Unsymmetrical Faults
    • Protection: Relays, Circuit Breakers, Protection Schemes
    • Stability: Transient and Steady-State Stability

  4. Signals and Systems

    • Signal Representation: Continuous and Discrete Signals
    • System Analysis: LTI Systems, Convolution, Fourier Transform
    • Sampling Theorem: Nyquist Criteria, Aliasing

  5. Control System Design

    • Compensators: Lead, Lag, Lead-Lag Compensators
    • State Space Analysis: State Models, State Transition Matrix
    • Non-Linear Systems: Phase Plane, Lyapunov Stability

Semester 6

  1. High Voltage Engineering

    • Insulation Materials: Properties, Applications
    • Generation and Measurement of High Voltages
    • High Voltage Testing: Standards, Methods

  2. Electrical Drives

    • Basics of Electric Drives: Components, Dynamics, and Control
    • DC Drives: Control Techniques
    • AC Drives: Induction Motor Drives, Synchronous Motor Drives

  3. Power System Operation and Control

    • Economic Load Dispatch: Problem Formulation, Solution Methods
    • Load Frequency Control: Single Area and Multi-Area Systems
    • Voltage Control: Methods, Reactive Power Compensation

  4. Renewable Energy Systems

    • Solar Energy: Photovoltaic Systems, Solar Thermal Systems
    • Wind Energy: Wind Turbines, Performance, and Control
    • Emerging Technologies: Biomass, Geothermal, Tidal Energy

  5. Digital Signal Processing

    • Discrete Fourier Transform: Properties, Applications
    • Digital Filters: FIR, IIR Filters Design
    • Signal Processing Applications: Speech, Image Processing

Semester 7

  1. Embedded Systems

    • Embedded System Design: Hardware, Software Components
    • Real-Time Operating Systems: Concepts, Programming
    • Embedded C Programming: Techniques, Tools

  2. Advanced Control Systems

    • Optimal Control: Performance Indices, Calculus of Variations
    • Adaptive Control: Model Reference Adaptive Systems
    • Robust Control: H-Infinity Control, Loop Shaping

  3. Electric and Hybrid Vehicles

    • Electric Vehicles: Components, Operation, and Control
    • Hybrid Vehicles: Architecture, Power Management
    • Battery Management Systems: Charging, Discharging, Thermal Management

  4. Power System Protection

    • Relay Coordination: Types, Operation
    • Digital Protection: Algorithms, Digital Relays
    • Substation Automation: SCADA, Communication Protocols

Semester 8

  1. Industrial Automation

    • Programmable Logic Controllers: Architecture, Programming
    • SCADA Systems: Components, Communication
    • Industrial Communication: Protocols, Standards

  2. Smart Grids

    • Smart Grid Technologies: Components, Operation
    • Communication in Smart Grids: Standards, Protocols
    • Smart Grid Applications: Demand Response, Energy Management

  3. Project Work

    • Research Methodology: Problem Formulation, Literature Survey
    • Project Design: Planning, Execution, Testing
    • Documentation and Presentation: Report Writing, Presentation Skills

  4. Elective Courses

    • Choose from various advanced topics like AI in Power Systems, Internet of Things (IoT), Advanced Power Electronics, etc.

This syllabus is designed to provide a comprehensive understanding of the core and advanced topics in Electrical Engineering, preparing students for both academic and professional success.

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