GIKI Test study materials
GIKI Test study resources

GIKI Test study plan

GIKI Test · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Electrical Engineering & Engineering Sciences

  • Derive and apply the node-voltage and mesh-current methods to two-source DC networks, then verify each solution by superposition

  • Solve transient RL and RC step-response problems for time constants, initial and final values, and sketch the response waveform

  • Compute complex power, power factor, and impedance in single-phase AC circuits, and correct a lagging power factor to a target value

  • State and apply the work-energy theorem and conservation of momentum to multi-body collision problems, distinguishing elastic from inelastic cases

  • Draw and interpret free-body diagrams for particles in equilibrium under concurrent forces, resolving components in rotated coordinate frames

Your checkpoint

A timed 25-question diagnostic set covering circuit analysis and engineering mechanics, scored with a written error log naming the specific method missed for each wrong item

Week 2

Electrical Engineering & Materials Science and Engineering

  • Analyze three-phase balanced wye and delta loads to find line and phase currents, voltages, and total delivered power

  • Determine the operating point of a BJT bias circuit and of an ideal op-amp amplifier configuration, including gain and input resistance

  • Explain the role of doping, Fermi level, and depletion region in forming a p-n junction diode characteristic, and apply the ideal-diode model to a rectifier

  • Classify crystal structures by unit cell type and compute atomic packing factor and theoretical density from lattice parameter and atomic mass

  • Distinguish the strengthening mechanisms of solid-solution, precipitation, and grain-boundary hardening, and predict which dominates in a given alloy description

  • Read a simplified binary phase diagram to identify phases, compositions, and phase fractions by the lever rule at a stated temperature

Your checkpoint

A one-page formula and concept sheet for electrical circuits, electronics, and materials science that you can reproduce from memory in ten minutes

Week 3

Mechanical Engineering & Chemical Engineering

  • Apply the first and second laws of thermodynamics to closed-system and steady-flow devices such as nozzles, turbines, and compressors

  • Compute thermal efficiency of an ideal Rankine or Brayton cycle given the state-point pressures and temperatures

  • Solve steady one-dimensional conduction problems through composite plane walls and cylindrical shells, including thermal resistance networks

  • Calculate heat-transfer coefficients and overall heat-transfer coefficients for combined convection and conduction, and size a simple exchanger by log-mean temperature difference

  • Perform material and energy balances on a single-unit and two-unit process flowsheet with recycle, solving for unknown stream flows

  • Relate conversion, selectivity, and yield for a multiple-reaction system and identify the limiting reactant

Your checkpoint

A worked solutions portfolio of ten problems, at least three on thermodynamic cycles and three on material balances, each with a labeled control volume or flowsheet sketch

Week 4

Computer Sciences and Engineering & Artificial Intelligence

  • Trace a C program's pointer arithmetic and dynamic memory use, and identify the undefined-behavior bug in a given snippet

  • Compute the running time of simple loops and recursive functions in big-O notation and justify the bound from the recurrence or loop structure

  • Compare arrays, linked lists, hash tables, and balanced search trees for a stated access and update workload, and defend the choice

  • Describe how a relational schema in third normal form is derived from a set of functional dependencies, and normalize a given table

  • Explain supervised versus unsupervised learning and select an appropriate algorithm class for a described problem with stated label availability

  • Compute precision, recall, and F1 from a confusion matrix, and explain why accuracy alone misleads on an imbalanced dataset

  • Describe the role of a train-validation-test split and identify data leakage in a described machine-learning workflow

Your checkpoint

A written comparison of two candidate algorithms for one described prediction task, covering data requirements, evaluation metric, and failure modes, plus a hand-computed confusion-matrix metric set

Week 5

Basic Sciences & School of Management Sciences

  • Solve first- and second-order linear ordinary differential equations arising from simple physical systems, including homogeneous plus particular solutions

  • Evaluate definite and indefinite integrals of standard functions and apply integration by parts and substitution to physical problems

  • Compute gradients, divergences, and line integrals, and state the physical meaning of each in an engineering context

  • Apply descriptive statistics and the normal distribution to compute probabilities and confidence intervals for a sample mean

  • Compute net present value, internal rate of return, and payback period for a simple capital project, and rank two mutually exclusive projects

  • Distinguish fixed, variable, and sunk costs, and compute a break-even quantity from a given cost structure

  • Explain the time value of money and the effect of discount rate on project acceptability

Your checkpoint

A single reference sheet of worked mathematics and engineering-economics problems, one fully solved example per technique, produced without consulting notes on the final pass

Week 6

Civil Engineering & Mechanical Engineering

  • Analyze a simply supported and a cantilever beam to draw shear-force and bending-moment diagrams for point and distributed loads

  • Compute bending and shear stresses in a beam cross-section and check the result against an allowable stress

  • Determine axial stress and deformation in a statically determinate truss or column, and identify buckling susceptibility from slenderness ratio

  • Classify soils by grain size and consistency limits, and compute effective stress with depth for a given water table

  • Compute the factor of safety against sliding and overturning for a simple retaining wall or gravity dam

  • Estimate concrete mix proportions by absolute volume method for a stated target strength and workability

Your checkpoint

A complete structural analysis of one beam and one retaining wall, with shear and moment diagrams, stress checks, and a stated factor of safety for each

Week 7

Artificial Intelligence & Computer Sciences and Engineering

  • Explain how a feedforward neural network learns via backpropagation and gradient descent, and identify the effect of learning rate on convergence

  • Distinguish overfitting from underfitting and select regularization, early stopping, or more data as the appropriate remedy for a described symptom

  • Describe the architecture and use case of a convolutional network for images and a recurrent or transformer model for sequences

  • Explain how a relational database enforces integrity through primary and foreign keys, and write a join query returning a specified result set

  • Compare process and thread scheduling and identify a race condition in a described concurrent program

  • Describe the layers of the TCP/IP stack and trace the steps of a client-server request from name resolution to response

Your checkpoint

A two-part written brief, one part on a neural-network training scenario with a diagnosed failure mode and remedy, one part on a database and networking scenario with the query and request trace written out

Week 8

Electrical Engineering & Engineering Sciences & Mechanical Engineering & Materials Science and Engineering & Chemical Engineering & Civil Engineering & School of Management Sciences & Basic Sciences & Computer Sciences and Engineering & Artificial Intelligence

  • Complete three full-length timed practice tests under exam conditions and record per-domain accuracy

  • Re-derive from memory the five formulas you most often miss, and confirm each against a worked example

  • Convert the error log from weeks one through seven into a ranked list of your ten weakest concepts, and close at least six of them with targeted practice

  • Practice time allocation by answering the easiest third of each section first, and record the minutes spent per section

  • Review every flagged uncertain item and either confirm the correct reasoning or mark it for final review

Your checkpoint

A final one-page personal error summary listing your ten weakest concepts, the corrected reasoning for each, and your per-domain accuracy trend across the three practice tests

Milestones

Week 2: Score at least 70 percent on a self-made 20-question set drawn from electrical circuits, electronics, and materials science, and show the formula sheet reproduced from memory

Week 4: Solve five mixed problems spanning thermodynamics, heat transfer, and material balances in under 60 minutes with at least four fully correct, and explain one algorithm-selection tradeoff aloud in under three minutes

Week 6: Draw correct shear and moment diagrams for both a simply supported and a cantilever beam without reference, and compute a retaining-wall factor of safety with the governing equation stated

Week 8: Achieve at least 65 percent overall on the final timed practice test with no single domain below 50 percent, and produce the completed ten-concept error summary