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
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
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
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
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
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
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
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
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