Extremadura PAU Technical Drawing Applied to Plastic Arts and Design II study materials
Extremadura PAU Technical Drawing Applied to Plastic Arts and Design II study resources

Extremadura PAU Technical Drawing Applied to Plastic Arts and Design II study plan

Extremadura PAU Technical Drawing Applied to Plastic Arts and Design II · Give each week a clear focus.

8 weeks · About 6 hours per week

Week 1

Plane geometry: conic sections, tangencies, and geometric constructions

  • Construct ellipses, parabolas and hyperbolas from their defining focus/directrix and focal properties, labelling foci, axes, vertices and asymptotes on each drawing.

  • Solve at least six tangency problems (line-to-circle, circle-to-circle, line-to-conic) using the locus-of-centres method, and justify each construction step in writing.

  • Apply homothety and inversion reasoning to reduce a tangency case to a known standard case, and record the reduction in a step list.

  • Draft a one-page personal reference sheet of construction procedures for conics and tangencies, in your own words and notation.

Your checkpoint

A single A3 sheet containing four correctly constructed conics (with all named elements) and six solved tangency constructions, each annotated with a 3–5 step written procedure.

Week 2

Plane geometry: conic sections, tangencies, and geometric constructions & Descriptive geometry: point, line, plane, and intersection problems

  • Construct the intersection point of a line and a plane by the auxiliary-plane method, and verify the result by the change-of-viewpoint or double-projection check.

  • Determine the intersection line of two planes given in mixed representation (traces, projected points, or a defined polygon), including the case of parallel traces.

  • Draw the apparent contour and visibility (solid/dashed) of a line piercing a plane in first-angle projection, keeping line weights consistent.

  • Time yourself on three multi-step intersection problems and log where you lost time or made projection errors.

Your checkpoint

A timed problem set (3 intersection problems, 25 minutes each) with full projection drawings and a short error log identifying each mistake and its cause.

Week 3

Descriptive geometry: point, line, plane, and intersection problems & Descriptive geometry: parallelism, perpendicularity, distances, and true shapes

  • Establish parallelism between lines and planes, and between two planes, in projection, and prove each condition with a short written argument.

  • Construct perpendicularity: a line perpendicular to a plane, a plane perpendicular to a plane, and the common perpendicular to two skew lines.

  • Compute and construct true lengths of segments and true shapes of planar sections using auxiliary views and rotation about an axis parallel to a projection plane.

  • Solve at least two distance problems (point-to-plane, point-to-line) and confirm the numeric result against a scaled measurement on the drawing.

Your checkpoint

A portfolio of five solved problems (two parallelism, two perpendicularity, one distance with true shape) each accompanied by a 4–6 line justification and a scale check.

Week 4

Descriptive geometry: parallelism, perpendicularity, distances, and true shapes & Polyhedra and surfaces: representation, sections, and developments

  • Draw the section of a prism, pyramid, cylinder and cone by an oblique plane, identifying the true shape of each section via auxiliary projection.

  • Construct the development (unfolding) of a truncated prism, a truncated cylinder and an oblique cone, and check that the development closes correctly.

  • Determine the intersection curve between a straight-sided solid and a surface of revolution using the generatrix/auxiliary-sphere method.

  • Assemble a labelled formula-and-procedure card for section and development of the four solid families.

Your checkpoint

A complete worked sheet: section and development of one truncated cone and one truncated prism, with the true-shape section drawn at 1:1 adjacent to each development.

Week 5

Polyhedra and surfaces: representation, sections, and developments & Technical drawing conventions, normalisation, and dimensioning

  • Represent the five regular polyhedra in projection from given edge data, and mark the visible and hidden edges consistently.

  • Apply ISO/UNE dimensioning rules: dimension lines, arrowheads, extension-line gaps, leader lines, and the placement of numerals for horizontal, vertical and inclined dimensions.

  • Dimension a multi-view drawing of a mechanical part without redundancy, choosing datum-based dimensioning over chain dimensioning where appropriate.

  • Correct a deliberately over-dimensioned drawing and list each rule you applied to fix it.

Your checkpoint

One fully dimensioned three-view drawing of a simple part (correct to ISO conventions) plus a written list of at least eight dimensioning rules you applied, each with an example from your drawing.

Week 6

Polyhedra and surfaces: representation, sections, and developments & Technical drawing conventions, normalisation, and dimensioning

  • Produce a sectional view (full section and half section) of a part with internal features, applying hatching conventions, and mark the cutting plane on the principal view.

  • Interpret and apply surface-finish, tolerance and edge-representation symbols in a short annotated drawing.

  • Compare freehand and instrumented drawing for the same object and identify where line-weight hierarchy changes readability.

  • Redraw a poorly laid-out sheet with corrected line hierarchy (thick visible edges, medium hidden, thin dimension and centre lines).

Your checkpoint

A two-sheet set: sheet 1 with full and half sections of the same part, sheet 2 with an annotated symbol legend and a before/after line-weight comparison.

Week 7

Graphic expression and design: sketching, layout, and visual communication & Applied projects: graphic documentation and problem solving in plastic arts and design

  • Produce rapid freehand sketches of a given object in isometric and in three orthographic views, keeping proportion accurate without instruments.

  • Compose a design presentation sheet: choose a grid, establish a visual hierarchy, and place title, views, annotations and colour accents coherently.

  • Write a short graphic-documentation brief (aim, views required, scale, materials, audience) for a small plastic-arts or design project.

  • Translate the brief into a set of drawings and check that every requirement in the brief is met by a specific drawing.

Your checkpoint

A one-page design presentation sheet (freehand sketch, orthographic views, annotations, title block) accompanied by a written brief of 150–200 words and a checklist showing brief-to-drawing traceability.

Week 8

Plane geometry: conic sections, tangencies, and geometric constructions & Descriptive geometry: point, line, plane, and intersection problems & Descriptive geometry: parallelism, perpendicularity, distances, and true shapes & Polyhedra and surfaces: representation, sections, and developments & Technical drawing conventions, normalisation, and dimensioning & Graphic expression and design: sketching, layout, and visual communication & Applied projects: graphic documentation and problem solving in plastic arts and design

  • Complete two full mock exam papers under strict time limits (one per sitting) covering all seven domains.

  • Mark your own mocks against a rubric you write, scoring construction accuracy, projection consistency, dimensioning correctness and presentation.

  • Re-solve every question you lost marks on, and identify the two domains with the lowest scores for targeted final revision.

  • Compile a final one-page condensed revision sheet of constructions, formulas and conventions to review the day before the exam.

Your checkpoint

Two completed timed mock papers with self-marked rubrics, a list of corrected errors, and a final one-page condensed revision sheet.

Milestones

Week 2: You can solve a line–plane intersection and a plane–plane intersection problem in under 20 minutes each, with correct visibility and no auxiliary-view errors.

Week 4: You can produce the true shape of a section and the development of a truncated solid in one sitting, and the development closes within 2 mm of the computed perimeter.

Week 6: A dimensioned, sectioned drawing of a simple part passes a self-check against ISO conventions with zero redundant dimensions and correct line weights.

Week 8: Both timed mock papers are completed within the allotted time, self-scored above your week-4 baseline in every domain, and every lost mark has a written correction.