GATE EE Previous Year Questions & Study Resources

GATE Electrical Engineering (EE)

1,170 solved GATE EE questions from 2014–2026, each with the official answer and a step-by-step solution. Solving past papers is the highest-signal preparation there is: it teaches the real difficulty level, the recurring topics, and the time pressure of the actual exam.

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GATE EE subject-wise PYQs

Choose a subject to revise one area at a time. Subject tags can overlap; these question counts are not marks weightage.

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Learn the concept, then solve the PYQs

Start with the available GATE EE revision companions: General Aptitude, Engineering Mathematics, Electric Circuits, Electrical Machines, Analog & Digital Electronics, Power Systems, Signals & Systems, Power Electronics, Control Systems, Electromagnetic Fields, Electrical & Electronic Measurements. Each combines concept notes, mistakes to avoid, an original worked example, a self-check and free further reading with the subject’s PYQs. No account is needed to read them.

General Aptitude: extract the relationship before computing

Translate the stated relationship into an equation or diagram before substituting numbers. Verbal reasoning depends on the passage's own claims; quantitative reasoning depends on a defined relationship between quantities. These selected foundations connect reading comprehension, data interpretation, and arithmetic reasoning. They are not a substitute for broader practice.

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Engineering Mathematics: verify conditions before applying a formula

State the domain, convergence condition, or regularity requirement a theorem needs before substituting. These selected foundations connect linear algebra, calculus, differential equations, complex analysis, and probability as they appear in the GATE EE syllabus. Each topic requires its own deeper study.

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Electric Circuits: preserve phase and account for power

Choose current directions, voltage polarities, and a time convention before simplifying. These selected foundations connect network equations to power accounting through original ideal-element exercises. Check dimensions and energy balance after solving.

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Electrical Machines: track ratios, rotating fields, and losses

Separate magnetic models, electrical equivalent circuits, and mechanical power balances. These selected notes use original idealized examples to distinguish transformer ratios from induction-machine slip and converted power from shaft output.

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Analog & Digital Electronics: bias first, then analyse the signal path

Establish the DC operating point before applying small-signal models. For digital circuits, define the truth table or state diagram before drawing gates or flip-flops. These selected foundations connect semiconductor device circuits, op-amp configurations, and combinational and sequential logic through original exercises.

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Power Systems: make three-phase quantities and bases explicit

Declare every quantity's reference: phase or line, total or per-phase, physical or per-unit. These selected notes develop balanced steady-state reasoning and base conversion through original analytical exercises, not installation procedures.

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Signals & Systems: classify the signal and system before transforming

Determine whether a signal is continuous or discrete, periodic or aperiodic, and energy or power before choosing a transform. These selected foundations connect LTI system properties, convolution, Fourier, Laplace, and Z transforms through original exercises. State region-of-convergence and causality assumptions explicitly.

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Power Electronics: trace the conduction path through each switching interval

Identify which devices conduct during each subinterval of the switching cycle before writing voltage and current equations. These selected foundations connect thyristor characteristics, controlled rectifiers, DC–DC converters, and inverters through original exercises. State assumptions about load type (resistive, inductive, or constant-current) and conduction mode explicitly.

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Control Systems: check stability before analysing performance

Determine whether the closed-loop system is stable before computing steady-state error, bandwidth, or transient specifications. These selected foundations connect transfer functions, stability criteria, root locus, and frequency response through original analytical exercises. State the feedback configuration and sign convention explicitly.

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Electromagnetic Fields: choose the symmetry, then apply the law

Identify the charge or current distribution's symmetry before selecting a Gaussian surface or Amperian loop. These selected foundations connect electrostatics, magnetostatics, Maxwell's equations, and wave propagation through original exercises. State boundary conditions and medium properties explicitly.

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Electrical & Electronic Measurements: account for every source of error

Distinguish instrument accuracy, precision, and resolution before trusting a reading. These selected foundations connect bridge circuits, instrument transformers, error analysis, and digital measurement principles through original analytical exercises. State the instrument class and full-scale range before computing errors.

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A repeatable PYQ revision routine

  1. Attempt a question before reading its solution. Write down your assumptions and reasoning, not just the answer.
  2. Compare the reasoning. Classify a miss as a concept gap, a calculation error or a misread condition.
  3. Use the revision notes to repair the gap, then attempt a different question from the same subject.
  4. Reattempt the missed question later without the solution. Use a complete paper to check pacing after topic revision.

This is our suggested study workflow, not an official sequence or a prediction of the next paper. Read how we produce our content.

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