GATE EE 2022 Syllabus
GATE Syllabus for 2022 exam for Electrical engineering along with brochure will be officially released by IIT Bombay.
To Crack GATE 2022 exam with better score and rank, one should have an effective preparation plan and to develop GATE study plan, candidates must refer to GATE Electrical Syllabus and Exam Paper Pattern. All the questions for GATE 2022 EEE exam will be based on the GATE Syllabus for Electrical Engineering. So, it's very much important for every GATE aspirant to be aware of GATE Electrical Syllabus.
Below given is a detailed GATE Syllabus for EEE paper with all the main sections and core subjects.
GENERAL APTITUDE
Verbal Ability:
1. Grammar
2. Vocabulary
3. Coding-Decoding & Series
4. Directions
5. Blood Relations
6. Arrangements
7. Syllogism
8. Inference & Assumptions
9. Clocks and Puzzles
Numerical Ability:
1. Fundamentals
2. Equations
3. Percentage
4. Averages
5. Ratio & Propotions
6. Mixture and Alligations
7. Data Interpretation & Data Suffiency
8. Time, Speed & Distance
9. Time & Work
10. Set Theory & Venn Diagrams
11. Progression
12. Functions & Graphs,
13. Logarthims
14. Permutations and Combinations
15. Probability
16. Geometry & Mensuration
ENGINEERING MATHEMATICS
Linear Algebra:
1. Matrix Algebra
2. Systems of linear equations
3. Eigen values and eigen vectors
Calculus:
1. Mean value theorems
2. Theorems of integral calculus
3. Evaluation of definite and improper integrals
4. Partial Derivatives5. Maxima and minima
5. Multiple integrals
6. Fourier series
7. Vector identities
8. Directional derivatives
9. Line, Surface and Volume integrals
10. Stokes
11. Gauss and Green’s theorems
Differential equations:
1. First order equation (linear and nonlinear)
2. Higher order linear differential equations with constant coefficients
3. Method of variation of parameters
4. Cauchy’s and Euler’s equations
5. Initial and boundary value problems
6. PartialDifferential Equations
7. Method of separation of variables
Complex variables:
1. Analytic functions
2. Cauchy’s integral theorem and integral formula
3. Taylor’s and Laurent’ series
4. Residue theorem
5. Solution integrals
Probability and Statistics:
1. Sampling theorems
2. Conditional probability
3. Mean
4. Median
5. Mode and standard deviation
6. Random variables
7. Discrete and continuous distributions
8. Poisson
9. Normal and Binomial distribution
10. Correlation and regression analysis
Numerical Methods:
1. Solutions of non-linear algebraic equations
2. Single and multi-step methods for differential equations
Transform Theory:
1. Fourier transform
2. Laplace transform
3. Z-transform
ELECTRICAL ENGINEERING
Electric Circuits:
1. Network graph
2. KCL
3. KVL
4. Node and Mesh analysis
5. Transient response of dc and ac networks
6. Sinusoidal steady?state analysis
7. Resonance
8. Passive filters
9. Ideal current and voltage sources
10. Thevenin’s theorem
11. Norton’s theorem
12. Superposition theorem
13. Maximum power transfer theorem
14. Two?port networks
15. Three phase circuits
16. Power and power factor in ac circuits
Electromagnetic Fields:
1. Coulomb’s Law
2. Electric Field Intensity
3. Electric Flux Density
4. Gauss’s Law
5. Divergence
6. Electric field and potential due to point
7. Line
8. Plane and spherical charge distributions
9. Effect of dielectric medium
10. Capacitance of simple configurations
11. Biot?Savart’s law
12. Ampere’s law
13. Curl
14. Faraday’s law
15. Lorentz force
16. Inductance
17. Magnetomotive force
18. Reluctance
19. Magnetic circuits
20. Self and Mutual inductance of simple configurations
Signals and Systems:
1. Representation of continuous and discrete-time signals
2. Shifting and scaling operations
3. Linear
4. Time-invariant and causal systems
5. Fourier series representation of continuous periodic signals
6. Sampling theorem
7. Fourier
8. Laplace and Z transforms
Electrical Machines:
1. Single phase transformer
3. Equivalent circuit
4. Phasor diagram
5. Ppen circuit and short circuit tests
6. Regulation and efficiency
7. Three phase transformers
8. Connections
9. Parallel operation
10. Auto?transformer
11. Electromechanical energy conversion principles
12. DC machines: separately excited
13. Series and shunt
14. Motoring and generating mode of operation and their characteristics
15. Starting and speed control of dc motors
16. Three phase induction motors
17. Principle of operation
18. Types
19. Performance
20. Torque-speed characteristics
21. No-load and blocked rotor tests
22. Equivalent circuit
23. Starting and speed control
24. Operating principle of single phase induction motors
25. Synchronous machines
26. Cylindrical and salient pole machines
27. Performance
28. Regulation and parallel operation of generators
29. Starting of synchronous motor
30. Characteristics
31. Types of losses and efficiency calculations of electric machines
Power Systems:
1. Power generation concepts
2. Ac and Dc transmission concepts
3. Models and performance of transmission lines and cables
4. Series and shunt compensation
5. Electric field distribution and insulators
6. Distribution systems
7. Per?unit quantities
8. Bus admittance matrix
9. Gauss Seidel and Newton-Raphson load flow methods
10. Voltage and Frequency control
11. Power factor correction
12. Symmetrical components
13. Symmetrical and unsymmetrical fault analysis
14. Principles of over?current
15. Differential and distance protection
16. Circuit breakers
17. System stability concepts
18. Equal area criterion
Control Systems:
1. Mathematical modeling and representation of systems
2. Feedback principle
3. Transfer function
4. Block diagrams and Signal flow graphs
5. Transient and Steady?state analysis of linear time invariant systems
6. Routh-Hurwitz and Nyquist criteria
7. Bode plots
8. Root loci
9. Stability analysis
10. Lag
11. Lead and Lead?Lag compensators
12. P, PI and PID controllers
13. State space model
14. State transition matrix
Electrical and Electronic Measurements:
1. Bridges and Potentiometers
2. Measurement of voltage
3. Current
4. Power
5. Energy and power factor
6. Instrument transformers
7. Digital voltmeters and multimeters
8. Phase
9. Time and Frequency measurement
10. Oscilloscopes
11. Error analysis
Analog and Digital Electronics:
1. Characteristics of diodes
2. BJT
3. MOSFET
4. Simple diode circuits
5. Clipping
6. Clamping
7. Rectifiers; Amplifiers: Biasing
8. Equivalent circuit and Frequency response
9. Oscillators and Feedback
10. Amplifiers
11. Operational amplifiers
12. Characteristics and applications
13. Simple active filters
14. VCOs and Timers
15. Combinational and Sequential logic circuits
16. Multiplexer
17. Demultiplexer
18. Schmitt trigger
19. Sample and hold circuits
20. A/D and D/A converters
21. 8085Microprocessor
22. Architecture
23. Programming and Interfacing
Power Electronics:
1. Characteristics of semiconductor power devices
2. Diode
3. Thyristor
4. Triac
5. GTO
6. MOSFET
7. IGBT
8. DC to DC conversion
9. Buck
10. Boost and Buck-Boost converters
11. Single and three phase configuration of uncontrolled rectifiers
12. Line commutated thyristor based converters
13. Bidirectional ac to dc voltage source converters
14. Issues of line current harmonics
15. Power factor
16. Distortion factor of ac to dc converters
17. Single phase and three phase inverters
18. Sinusoidal pulse width modulation