Electrical Engineering Syllabus

Electrical Engineering Syllabus

Being an immensely popular engineering branch, Electrical Engineering is a highly competitive field that deals with the world of electronics and electricals. Fundamentally dealing with the theoretical understanding of the subject matter under consideration the Electrical Engineering syllabus develops an understanding of different facets of the field. Electrical Engineering courses further undertake the journey to provide an in-hand experience and practical knowledge of the domain for a period of 3 or 4 years. Let us take a look at the different aspects of the degree course.

What do you Study in Electrical Engineering?

Electrical Engineering incorporates the core concepts of Electrical, Electronics and Communication, while other major topics include Magnetostatics and Electrostatics, Energy Generation and Transmission, Electrical Installations, etc. Moreover, Electrical Engineering syllabus is highly specialised providing students the understanding of Digital Communication, Wireless Technologies, Digital and Analogue Circuit Design and Computer Technologies.

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What do Electrical Engineers Specialize In? 

  • Circuits 
  • Communication Systems 
  • Control Systems 
  • Microelectronics or Photonics 
  • Signal Processing 
  • Nanotechnology 
  • Power and Energy Systems 
  • Remote Sensing and Power Sensing 
  • Electromagnetics 

The increasing demand for technically-skilled engineers results in individuals opting for polytechnic or short-term courses. To know more, read our blog on Diploma in Electrical Engineering.

Electrical Engineering Syllabus – Semester Wise

The syllabus for BE or BTech in Electrical Engineering includes a broad array of subjects distributed across 8 semesters. While the core subjects aim towards laying a strong foundation of the key aspects of the domain, electives, on the other hand, are technical and industry-specific. Here is a compilation of the major topics covered in Electrical Engineering syllabus, universally accepted by institutions abroad:

Semester 1Semester 2
Fundamental English
Mathematics
Chemistry
Physics
Engineering Materials
Engineering Graphics
Environmental Studies
Practical Chemistry
Practical Physics  
Engineering Physics
Engineering Chemistry
Computer Programming
Electrical Instrumentation
Electrical Technology
Engineering Mechanics, Electricity and Magnetism
Semester 3Semester 4
Mathematics
Mechanics of Solids, Special Relativity and Waves
Introduction to Photonics
Green Electronics
Data Structures
Digital Circuits
Circuit Theory
Applied Thermodynamics 
Electrical Machines
Electrical Measurements
Analogue Circuits
Digital Image Processing
Managerial Circuits
Signals and Systems
Numerical and Statistical Methods
Analogue Circuits Lab 
Semester 5Semester 6
Power Systems
Control Systems
Electrical Machines
Virtual Reality
Digital Systems Architecture
Digital Signal Processing
Field Theory
Microprocessors and Computer Organization 
Electrical Power Generation
Power Electronics
Power Systems
Instrumentation
Machine Learning
Control Systems
Microprocessor-based Systems
Power System Design and Electrical Machines
Semester 7Semester 8
Electrical Drives
Operation Research
Switchgear and Protection
Advanced Power Electronics
Special Purpose Machines
Electrical Mining Technology
Electric Transportation
Opto-electronics
Power Plant Instrumentation
Communication Engineering
Artificial Intelligence
Switchgear and Protection  
Computer Application in Power System
High Voltage Engineering
Illumination and Utility Services
Static Relays
Industrial Automation and Control
Utilization of Electrical Power
Digital Instrumentation
Mining Instrumentation
Optimization Technique
Robotics
Pattern Recognition
Optimal Control 

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Important Concepts for GATE Preparation

If you are an MTech aspirant looking forward to appearing for GATE exam 2020, then we have curated a list of major subjects and corresponding topics in Electrical Engineering syllabus that you can prepare in order to score to your maximum potential.

1. Electric Circuits
Network Graph; KCL, KVL, Node and Mesh Analysis; Transient response of DC and AC Networks; Sinusoidal Steady‐state Analysis; Resonance; Passive Filters; Ideal Current and Voltage Sources; Thevenin’s TheoremNorton’s Theorem; Superposition Theorem; Maximum Power Transfer Theorem; Two‐Port Networks; Three-phase Circuits; Power and Power Factor in AC Circuits
2. Engineering Mathematics
Linear Algebra; Calculus; Differential Equations; Complex Variables; Probability and Statistics; Numerical Methods; Transform Theory
3. Electromagnetic Fields
Coulomb’s Law; Electric Field Intensity; Electric Flux Density; Gauss’s Law; Divergence; Electric Field and Potential due to Point, Line, Plane and Spherical Charge Distributions; Effect of the Dielectric Medium; The Capacitance of Simple Configurations; Biot‐Savart’s Law; Ampere’s Law; Curl; Faraday’s Law; Lorentz Force; Inductance; Magnetomotive Force; Reluctance; Magnetic Circuits; Self and Mutual Inductance of Simple Configurations
4. Analogue and Digital Electronics
Characteristics of Diodes; BJT; MOSFET; Simple Diode Circuits: Clipping, Clamping, Rectifiers; Amplifiers; Biasing; Equivalent Circuit and Frequency Response; Oscillators and Feedback Amplifiers; Operational Amplifiers; Characteristics and Applications; Simple Active Filters; VCOs and Timers; Combinational and Sequential Logic Circuits; Multiplexer; Demultiplexer; Schmitt Trigger; Sample and Hold Circuits; A/D and D/A Converters; 8085 Microprocessor; Architecture; Programming and Interfacing
5. Power Electronics
Characteristics of Semiconductor Power; Devices; Diode; Thyristor; Triac; GTO, MOSFET, IGBT; DC to DC Conversion; Buck, Boost and Buck-Boost Converters; Single and Three-phase Configuration of Uncontrolled Rectifiers; Line Commutated Thyristor-based Converters; Bidirectional AC to DC Voltage Source Converters; Issues of Line Current Harmonics; Power Factor; Distortion Factor of AC to DC Converters; Single-phase and Three-phase Inverters; Sinusoidal Pulse Width Modulation
6. Signals and Systems
Representation of Continuous and Discrete‐time Signals; Shifting and Scaling Operations; Linear Time-Invariant and Causal Systems; Fourier Series Representation of Continuous Periodic Signals; Sampling Theorem; Applications of Fourier Transform; Laplace Transform and Z-Transform
7. Electrical and Electronic Measurement
Bridges and Potentiometers; Measurement of Voltage, Current, Power, Energy and Power Factor; Instrument Transformers; Digital Voltmeters and Multimeters; Phase, Time and Frequency Measurement; Oscilloscopes; Error Analysis
8. Electrical Machines
Single-phase Transformer: Equivalent Circuit, Phasor Diagram, Open Circuit and Short Circuit Tests, Regulation and Efficiency; Three-phase Transformers: Connections, Parallel Operation; Auto‐transformer; Electromechanical Energy Conversion Principles; DC Machines: Separately Excited, Series and Shunt, Motoring and Generating Mode of Operation and their Characteristics, Starting and Speed Control of DC motors; Three-phase Induction Motors: The Principle of Operation, Types, Performance, Torque-speed Characteristics, No-load and Blocked Rotor Tests, Equivalent Circuit, Starting and Speed Control; Operating Principle of Single-phase Induction Motors; Synchronous Machines: Cylindrical and Salient Pole Machines, Performance, Regulation and Parallel Operation of Generators, Starting of Synchronous Motor, Characteristics; Types of Losses and Efficiency Calculations of Electric Machines
9. Control Systems
Mathematical Modelling and Representation of Systems; Feedback Principle, Transfer Function; Block Diagrams and Signal Flow Graphs; Transient and Steady‐state Analysis of Linear Time-invariant Systems; Routh-Hurwitz and Nyquist Criteria; Bode Plots; Root Loci; Stability Analysis; Lag; Lead and Lead‐Lag Compensators; P, PI and PID Controllers; State-space Model; State Transition Matrix
10. Power Systems
Power Generation Concepts, AC and DC Transmission Concepts; Models and Performance of Transmission Lines and Cables; Series and Shunt Compensation; Electric Field Distribution and Insulators; Distribution Systems; Per‐unit Quantities; Bus Admittance Matrix; Gauss-Seidel and Newton-raphson; Load Flow Methods; Voltage and Frequency Control; Power Factor Correction; Symmetrical Components; Symmetrical and Unsymmetrical Fault Analysis; Principles of Overcurrent, Differential and Distance Protection; Circuit Breakers; System Stability Concepts; Equal Area Criterion

Also Read: Scholarship for Engineering Students

With the global increase in the demand for Electrical Engineers, there is a huge growth expected in this field. So, if you feel intrigued to fulfil your thirst for knowledge in the domain of Engineering, we hope that this Electrical Engineering syllabus would help you progress with your study in this field. Want to take your higher education abroad? Get in touch with our experts at Leverage Edu who can help you find a technical university that best fits your career goals

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