GATE 2013 - Syllabus for Electrical Engineering(EE)

Posted by Too Many Requests On Saturday 11 August 2012 0 comments


GATE 2013 - Syllabus for Electrical Engineering(EE)

 
  • Engineering Mathematics
    • Linear Algebra:
      • Matrix Algebra,
      • Systems of linear equations,
      • Eigen values and
      • eigen vectors.
    • Calculus:
      • Mean value theorems,
      • Theorems of integral calculus,
      • Evaluation of definite and improper integrals,
      • Partial Derivatives,
      • Maxima and minima,
      • Multiple integrals,
      • Fourier series.
      • Vector identities,
      • Directional derivatives,
      • Line,
      • Surface and Volume integrals,
      • Stokes,
      • Gauss and Green's
    • Differential equations:
      • First order equation (linear and nonlinear),
      • Higher order
      • linear differential equations with constant coefficients,
      • Method of variation of parameters,
      • Cauchy's and Euler's equations,
      • Initial and boundary value problems,
      • Partial Differential Equations and variable separable method.
    • Complex variables:
      • Analytic functions,
      • Cauchy's integral theorem and integral formula,
      • Taylor's and Laurent' series,
      • Residue theorem,
      • solution integrals.
      • Probability and Statistics:
      • Sampling theorems,
      • Conditional probability,
      • Mean, median, mode and standard deviation,
      • Random variables,
      • Discrete and continuous distributions,
      • Poisson,
      • Normal and Binomial distribution,
      • Correlation and regression analysis.
    • Numerical Methods:
      • Solutions of non-linear algebraic equations,
      • single and multi-step methods for differential equations.
      • Transform Theory:
      • Fourier transform,
      • Laplace transform,
      • Z-transform.
  • Electric Circuits and Fields:
    • Network graph,
    • KCL,
    • KVL,
    • node and mesh analysis,
    • transient
    • response of dc and ac networks;
    • sinusoidal steady-state analysis,
    • resonance,
    • basic filter concepts;
    • ideal current and voltage sources,
    • Thevenin's,
    • Norton's and Superposition and
    • Maximum Power Transfer theorems,
    • two-port networks,
    • three phase circuits;
    • Gauss Theorem,
    • electric field and potential due to point,
    • line,
    • plane and spherical charge distributions;
    • Ampere's and Biot-Savart's laws;
    • inductance;
    • dielectrics;
    • capacitance.
  • 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;
    • Fourier,
    • Laplace and Z transforms.
  • Electrical Machines:
    • Single phase transformer - equivalent circuit,
    • phasor diagram, tests, regulation and efficiency;
    • three phase transformers - connections,
    • parallel operation;
    • auto-transformer;
    • energy conversion principles;
    • DC machines - types,
    • windings,
    • generator characteristics,
    • armature reaction and commutation,
    • starting and speed control of motors;
    • three phase induction motors - principles, types, performance characteristics, starting and speed control;
    • single phase induction motors;synchronous machines - performance, regulation and parallel operation of generators, motor starting, characteristics and applications; servo and stepper motors.
  • Power Systems:
    • Basic power generation concepts;
    • transmission line models and performance;
    • cable performance, insulation;
    • corona and radio interference;
    • distribution systems; per-unit quantities;
    • bus impedance and admittance matrices;
    • load flow; voltage control;
    • power factor correction;
    • economic operation;
    • symmetrical components;
    • fault analysis;
    • principles of over-current, differential and distance protection;
    • solid state relays and digital protection;
    • circuit breakers;
    • system stability concepts, swing curves and equal area criterion;
    • HVDC transmission and FACTS concepts.
  • Control Systems:
    • Principles of feedback; transfer function; block diagrams;
    • steady-state errors; Routh and Niquist techniques; Bode
    • plots; root loci; lag, lead and lead-lag compensation; state
    • space model; state transition matrix, controllability and
    • observability.
  • Electrical and Electronic Measurements:
    • Bridges and potentiometers; PMMC, moving iron, dynamometer
    • and induction type instruments; measurement of voltage,
    • current, power, energy and power factor; instrument
    • transformers; digital voltmeters and multimeters; phase, time
    • and frequency measurement; Q-meters; oscilloscopes;
    • potentiometric recorders; error analysis.
  • Analog and Digital Electronics:
    • Characteristics of diodes, BJT, FET;
    • 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;
    • Schmitt trigger;
    • multi-vibrators;
    • sample and hold circuits;
    • A/D and D/A converters;
    • 8-bit microprocessor basics,
    • architecture, programming and interfacing.
  • Power Electronics and Drives:
    • Semiconductor power diodes,
    • transistors, thyristors, triacs,
    • GTOs, MOSFETs and IGBTs - static characteristics and principles of operation;
    • triggering circuits;
    • phase control rectifiers;
    • bridge converters - fully controlled and half controlled;
    • principles of choppers and inverters;
    • basis concepts of adjustable speed dc and ac drives.

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