Basque PAU Mathematics II study materials
Basque PAU Mathematics II study resources

Basque PAU Mathematics II study plan

Basque PAU Mathematics II · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Matrices, determinants and systems of linear equations

  • Classify square matrices by order and compute determinants of orders 2 and 3 using Sarrus' rule and cofactor expansion along a row or column

  • Compute the inverse of a 3x3 matrix by the adjugate method and verify the result by multiplying back to the identity

  • Determine the rank of a matrix by Gaussian elimination, stating clearly which elementary row operations preserve rank

  • Solve Cramer-type 3x3 systems and identify from the determinant value when the system is incompatible or indeterminate

Your checkpoint

A handwritten formula sheet plus 12 fully worked matrix and determinant exercises (4 determinants, 4 inverses/ranks, 4 systems) with every intermediate step shown

Week 2

Matrices, determinants and systems of linear equations

  • Apply Rouché–Capelli reasoning to decide consistency of systems with a parameter, distinguishing the three cases by comparing rank of coefficient and augmented matrices

  • Solve parameter-dependent systems and express the solution set in terms of the parameter, including the one-parameter infinite family case

  • Use matrix equations of the form AX = B and AXB = C to isolate and compute the unknown matrix

  • Interpret matrix powers and the transpose in short algebraic proofs, such as showing (AB)^T = B^T A^T for 2x2 cases

Your checkpoint

A one-page decision flowchart for parameter systems plus 8 solved PAU-style problems where each answer states the discussion of cases before the solution

Week 3

Vectors and analytic geometry in space

  • Perform dot, cross and mixed products on given vectors and state the geometric meaning of each result

  • Compute the angle between two vectors and the projection of one vector onto another without a calculator

  • Derive equations of lines and planes in all standard forms (parametric, general, vector) and convert between them

  • Classify the relative positions of two lines and of a line and a plane by comparing direction vectors and solving the resulting system

Your checkpoint

A table of all relative-position cases (line-line, line-plane, plane-plane) with the algebraic test and a geometric sketch for each, plus 10 solved exercises matching the table

Week 4

Vectors and analytic geometry in space

  • Compute distances between points, point-to-line, point-to-plane, and between skew lines using the mixed product formula

  • Calculate areas of triangles and parallelograms and volumes of tetrahedra and parallelepipeds using cross and mixed products

  • Find the symmetric point of a point with respect to a line and with respect to a plane

  • Determine the projection of a point onto a plane and onto a line, and use it to compute the shortest distance

Your checkpoint

A timed 90-minute mock section of 4 geometry problems (distances, areas/volumes, symmetry, relative position) scored against a written rubric, with corrections for every lost point

Week 5

Limits, continuity and differentiability of functions of one variable

  • Compute limits of rational, irrational and exponential functions at a point and at infinity, resolving 0/0 and infinity/infinity indeterminacies

  • Apply L'Hôpital's rule only after verifying the required hypothesis, and identify when it fails

  • Determine the value of a parameter so that a piecewise function is continuous at a given point

  • Classify discontinuities as removable, jump or asymptotic and justify each classification with one-sided limits

Your checkpoint

A limit-error log listing 10 attempted limits, the indeterminacy type, the method chosen, and a self-check of the final answer

Week 6

Limits, continuity and differentiability of functions of one variable

  • Differentiate composite, implicit and parametric functions and state the domain where the derivative exists

  • Use the derivative to find tangent and normal lines at a given abscissa

  • Apply the mean value theorem conditions and Rolle's theorem to prove existence of a point with a given derivative value

  • Solve optimisation and monotonicity problems, including finding parameters that make a function have a stationary point of a specified type

Your checkpoint

A solved set of 10 derivative and application problems, each with a short sentence explaining why the derivative test used is valid

Week 7

Integral calculus and applications

  • Compute indefinite integrals by substitution, by parts and by simple partial fractions, and check each result by differentiating

  • Apply the fundamental theorem of calculus to definite integrals, handling absolute values and piecewise integrands by splitting the interval

  • Compute areas between curves by finding intersection points and setting up the correct integral with sign control

  • Compute volumes of revolution about the x-axis using the disk method

Your checkpoint

A portfolio of 12 integrals (4 indefinite, 4 definite, 2 areas, 2 volumes) each verified by differentiation or by an independent geometric estimate

Week 8

Probability and statistics

  • Apply conditional probability, the total probability theorem and Bayes' theorem to multi-stage problems stated in words

  • Model binomial and normal situations, choose the correct distribution, and apply the standardisation formula with continuity correction

  • Compute expected value and variance of discrete variables and interpret them in context

  • Interpret confidence intervals and hypothesis-test language at a conceptual level, identifying the null hypothesis and the meaning of the significance level

Your checkpoint

A two-hour full mock exam under PAU timing conditions covering all five domains, self-marked, with a written list of the three weakest topics and a revision action for each

Milestones