Balearic Islands PAU Mathematics II study materials
Balearic Islands PAU Mathematics II study resources

Balearic Islands PAU Mathematics II study plan

Balearic Islands PAU Mathematics II · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Linear algebra: matrices, determinants and systems of linear equations

  • Classify square matrices by rank and invertibility using Gaussian elimination, stating the exact row operations performed

  • Compute 2x2, 3x3 and 4x4 determinants by cofactor expansion and by row reduction, and verify one result with the other method

  • State and apply the properties of determinants (multilinearity, effect of row swaps, det of product and inverse) to justify each step

  • Solve square systems by Cramer's rule and by matrix inversion, then check the residual of the solution vector

Your checkpoint

A one-page matrix toolkit sheet with 6 fully worked exercises (rank, inverse, determinant by two methods, Cramer, inverse-method system, verification) written without consulting notes

Week 2

Linear algebra: matrices, determinants and systems of linear equations

  • Apply Rouché–Capelli to classify systems as inconsistent, determined or underdetermined, and express solutions with a free parameter when rank is deficient

  • Solve homogeneous systems and describe the solution set as a subspace with an explicit basis

  • Model word problems (mixing, equilibrium, network flow) as linear systems and interpret the solution in context

  • Diagnose the most common algebraic slips in elimination and set up a personal error checklist

Your checkpoint

A timed 75-minute mock exam section on linear algebra (2 full PAU-style problems) scored against a rubric, with every lost mark traced to a named error category

Week 3

Analytic geometry in space: vectors, lines, planes, positions, angles and distances

  • Perform vector operations in space (linear combinations, scalar and vector products, mixed product) and interpret each geometrically

  • Determine the relative position of two and three planes from the ranks of the coefficient and augmented matrices

  • Compute angles between lines and planes and between pairs of planes using dot and cross products

  • Compute distances from a point to a line and to a plane, and between skew lines

Your checkpoint

A position-and-distance decision table covering all plane/line configurations plus 5 solved problems, each with a labelled sketch of the configuration

Week 4

Linear algebra: matrices, determinants and systems of linear equations & Analytic geometry in space: vectors, lines, planes, positions, angles and distances

  • Convert freely between general, parametric and vector equations of lines and planes, and check consistency of the three forms

  • Solve combined problems where a parameter in a plane or line equation must be found from an incidence or distance condition

  • Compute areas of triangles and parallelograms and volumes of tetrahedra and parallelepipeds using products

  • Complete a full past-paper under exam timing and mark it strictly

Your checkpoint

A full 90-minute mock exam on domains 1 and 2, self-marked, with a written log of every error and the corrected solution for each

Week 5

Differential calculus: limits, continuity, derivatives, applications and optimisation

  • Evaluate limits including indeterminate forms, one-sided limits and limits at infinity, and identify vertical, horizontal and oblique asymptotes

  • Determine the domain and the points of discontinuity of a piecewise function and classify each discontinuity

  • Differentiate composite, implicit and parametric functions and compute tangent and normal lines at a given point

  • Apply Rolle's and the mean value theorem to prove existence of roots or stationary points on an interval

Your checkpoint

A limits-and-continuity problem set of 10 exercises fully solved, including one piecewise function whose parameter is chosen to make it continuous everywhere

Week 6

Differential calculus: limits, continuity, derivatives, applications and optimisation

  • Find intervals of increase and decrease, extrema and inflection points from the sign of first and second derivatives

  • Optimise a real-world quantity (area, cost, volume) by building the objective function and verifying the optimum on its domain

  • Sketch the graph of a rational or piecewise function using asymptotes, monotonicity and curvature

  • Solve an optimisation word problem end-to-end under time pressure and justify why the critical point is the global optimum

Your checkpoint

A graph-analysis dossier: 3 complete curve sketches with a table of asymptotes, monotonicity, extrema and inflection points, plus 1 fully argued optimisation problem

Week 7

Integral calculus: antiderivatives, definite integrals, areas and volumes

  • Compute indefinite integrals by substitution, by parts and by partial fractions, and verify each antiderivative by differentiation

  • Evaluate definite integrals using the fundamental theorem and handle improper integrals with infinite limits

  • Compute areas between curves, including regions requiring splitting at intersection points

  • Set up and evaluate volumes of revolution around the x-axis and around a horizontal line using the disk or washer method

Your checkpoint

An area-and-volume portfolio of 6 regions, each with the integral setup, the antiderivative, the evaluated value and a sketch showing the region and the axis of revolution

Week 8

Probability and statistics: combinatorics, probability, binomial and normal distributions, inference

  • Solve counting problems using permutations, combinations and the multiplication principle, distinguishing ordered from unordered selections

  • Apply conditional probability, independence and Bayes' theorem to multi-stage problems

  • Compute binomial probabilities and use the normal approximation with continuity correction, including standardising values and reading tail probabilities

  • Interpret a confidence interval for a mean and state how sample size and confidence level affect its width

  • Sit two full timed mock exams and triage remaining weak topics into a final revision list

Your checkpoint

Two complete timed mock exams (90 minutes each, all five domains) with a scored summary sheet and a prioritised final-week revision list of at most 8 items

Milestones

Week 2: Score at least 70% on the linear algebra mock section, and correctly classify the solution type of 8 out of 10 systems without notes

Week 4: Score at least 65% on the combined domains 1-2 mock, and solve every relative-position problem in the decision table without referring to it

Week 6: Produce a correct full curve sketch and a correct optimisation solution in under 25 minutes each, with all critical points justified by derivative signs

Week 8: Score at least 75% on both final mocks, with no domain below 60%, and complete each paper within the time limit