GATE TF study plan

Diagnose your baseline in the XE Engineering Sciences syllabus by working 20 mixed numerical problems untimed and logging accuracy per topic area

Rebuild core mathematics foundations: solve 15 problems each on linear algebra, calculus, and differential equations drawn from the standard GATE-level topics

Write a one-page formula sheet covering matrices, eigenvalues, ODE solution methods, and complex numbers from memory, then correct it against a textbook

Set up a weekly error log template that records topic, mistake type, and correction for every wrong answer

Solve 30 problems on fluid mechanics and continuum topics including Bernoulli applications, laminar pipe flow, and Reynolds number classification

Derive and apply the continuity and momentum equations to at least 5 steady-flow problems without consulting solutions

Compute friction factors and head losses for 10 pipe-flow cases using Darcy-Weisbach and check each against a reference value

Summarize the distinction between Newtonian and non-Newtonian behavior in your own words in the error log

Work 25 problems on material science and solid mechanics: stress-strain relations, elastic moduli, thermal expansion, and failure criteria

Calculate principal stresses and Mohr circle values for 8 two-dimensional stress states

Compare crystal structures and defect types by writing a short comparison table linking each defect to a property change

Review every week-2 error and re-solve the missed problems closed-book

Solve 25 problems on thermodynamics and heat transfer: first and second law cycles, conduction through composite walls, and convection correlations

Compute efficiency for 5 thermodynamic cycles and verify each result by an independent energy balance

Practice 10 numerical heat-transfer problems under a 2-minute-per-problem timer to build exam speed

Consolidate weeks 1 to 4 into a single expanded formula sheet organized by topic

Map the Energy Science syllabus and identify which topics overlap with Engineering Sciences thermodynamics versus which are new

Study solar photovoltaic fundamentals and solve 15 problems on cell efficiency, fill factor, and irradiance-to-power conversion

Work 10 problems on wind energy covering power coefficient, Betz limit, and turbine scaling laws

Write definitions and units for 20 core energy terms such as capacity factor, energy density, and levelized cost

Solve 20 problems on energy storage and conversion: battery capacity and C-rate, fuel cell efficiency, and hydrogen energy content

Analyze 5 combined power cycles and compute overall plant efficiency including losses

Compare conventional and renewable generation options in a structured table covering efficiency, cost drivers, and dispatchability

Re-solve all missed Energy Science problems from week 5 closed-book

Take two full-length sectional mock tests under strict timing and record section-wise scores

Identify the five weakest topics across both domains from mock-test data and re-study each with 10 targeted problems

Practice 30 rapid-recall questions mixing formulas from both domains to strengthen retention

Refine the formula sheet down to the items you actually missed in mocks, removing what you already know cold

Take one final full-length mock and aim for a measurable improvement over the week-7 average

Review the entire error log and re-solve every problem still marked unresolved

Memorize the trimmed formula sheet through three spaced recall sessions on separate days

Plan exam-day time allocation between sections and rehearse the strategy on a 20-question timed set