Valencian Community PAU Technology & Engineering II study materials
Valencian Community PAU Technology & Engineering II study resources

Valencian Community PAU Technology & Engineering II study plan

Valencian Community PAU Technology & Engineering II · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Mechanical systems and structural design

  • Reproduce from memory the three equations of equilibrium and apply them to at least six determinate beam and truss cases, solving for reactions and internal forces

  • Classify structural members by type of load (tension, compression, bending, shear, torsion) and compute axial stress, bending stress and deflection for simple sections

  • Calculate section properties (area, centroid, moment of inertia) for rectangular, circular and I-shaped cross-sections without reference tables

  • Identify the failure modes of a beam or column (yielding, buckling, excessive deflection) and state which check governs for a given span-to-depth ratio

Your checkpoint

A hand-written problem set of six solved statics problems plus a one-page formula sheet with section-property and stress formulas, self-marked against a checklist of units and free-body diagrams

Week 2

Mechanical systems and structural design & Materials: structure, properties, selection and testing

  • Select structural profiles for a given load case by comparing required versus available section modulus, and justify the choice in two sentences

  • Distinguish the mechanical tests used to obtain material data (tensile, hardness, impact, fatigue) and state which property each yields

  • Interpret a stress-strain curve to extract yield strength, ultimate strength, elastic modulus and ductility, and relate these to design safety factors

  • Explain how heat treatment and alloying change the properties of steels and aluminium alloys, and match three named materials to three engineering applications

Your checkpoint

A one-page material-selection table for a small structure (for example a footbridge or a machine frame) listing at least four candidate materials, their key properties, and a justified final choice with a safety-factor calculation

Week 3

Electrical and electronic systems

  • Solve series, parallel and mixed DC circuits using Kirchhoff's laws, node analysis and mesh analysis, checking each result by power balance

  • Apply Thévenin and Norton equivalents to reduce a network to a two-terminal source and load it correctly

  • Analyse first-order RC and RL transients and compute time constants, charging times and steady-state values

  • Compute power, energy and efficiency in single-phase AC circuits with resistive, inductive and capacitive loads, including power factor correction

Your checkpoint

A set of eight solved circuit problems (at least two using Thévenin, two transients, two AC power factor) with a short written verification of each answer by an independent method

Week 4

Electrical and electronic systems & Control systems and automation

  • Design combinational logic from a truth table, minimising with Karnaugh maps, and implement the result with NAND-only gates

  • Convert between binary, decimal, hexadecimal and BCD, and perform signed arithmetic in two's complement

  • Analyse sequential circuits built from flip-flops by drawing state and timing diagrams for a simple counter

  • Explain the operating principle of sensors and actuators used in automation (limit switches, encoders, proximity sensors, relays, contactors, motors) and wire a relay-based motor start-stop circuit

Your checkpoint

A complete design dossier for a small logic-controlled system: truth table, minimised expressions, gate-level schematic, timing diagram, and a labelled relay wiring diagram

Week 5

Control systems and automation & Energy, power and environmental impact

  • Draw and interpret GRAFCET and state-machine diagrams for a sequential process, including parallel branches and emergency-stop behaviour

  • Program a simple PLC-style control (ladder or structured text) for a three-step sequence and trace its behaviour for a fault condition

  • Compare open-loop and closed-loop control, and describe the effect of proportional, integral and derivative action on response time, overshoot and steady-state error

  • Compute the energy output and efficiency of a renewable installation (photovoltaic array or wind turbine) from given irradiance, area, efficiency or wind speed data

  • Quantify the environmental impact of an energy choice using at least two indicators (CO2 emissions per kWh, land use, or embodied energy) and argue a justified recommendation

Your checkpoint

A two-part report: a GRAFCET plus pseudo-code solution for an automated process, and a 300-word energy comparison of two supply options for the same demand, with a table of computed figures

Week 6

Materials: structure, properties, selection and testing & Energy, power and environmental impact

  • Describe the internal structure of metals, polymers, ceramics and composites and link each structure to at least two macroscopic properties

  • Explain oxidation and corrosion mechanisms and select a protection method (coating, galvanising, cathodic protection, alloying) for three given environments

  • Evaluate material recyclability and life-cycle impact, and rank four materials for a specified sustainable product

  • Calculate the energy cost and environmental payback of a material choice over a product lifetime

Your checkpoint

A comparative materials-and-sustainability dossier for one product (for example a bicycle frame or a water tank) covering structure, properties, corrosion protection, recycling and a life-cycle comparison table

Week 7

Engineering project, technical drawing and ICT

  • Produce a dimensioned orthographic drawing (plan, elevation, section) of a simple mechanical part to recognised drafting conventions, including tolerances and surface finish symbols

  • Build a 3D model or technical sketch of an assembly and extract the views and a bill of materials from it

  • Write a project brief containing objectives, constraints, specifications, budget and a Gantt-style schedule for a small engineering project

  • Use a spreadsheet or script to solve a design calculation and document the result so another person could reproduce it

Your checkpoint

A complete mini-project file: project brief, schedule, dimensioned drawing set of at least two parts, and a calculation sheet with inputs, formulas and results

Week 8

Materials: structure, properties, selection and testing & Mechanical systems and structural design & Electrical and electronic systems & Control systems and automation & Energy, power and environmental impact & Engineering project, technical drawing and ICT

  • Complete two full timed mock papers under exam conditions and score them against a mark scheme

  • Diagnose the three weakest topics from the mock results and re-solve at least ten targeted problems in those areas

  • Consolidate all formula sheets into a single indexed reference and verify every formula by re-deriving or using it once

  • Rehearse written-answer technique: state the assumption, show the calculation, give units and a concluding sentence, for at least five long-answer questions

Your checkpoint

A scored mock-exam log showing both papers, the error analysis by topic, and a one-page final revision sheet of the highest-risk formulas and concepts

Milestones

Week 2: Solve, unaided and within 45 minutes, a determinate beam problem combined with a material-selection justification, scoring at least 70% on a self-made rubric covering free-body diagram, units and safety factor

Week 4: Complete a mixed set of ten problems spanning statics, circuits and combinational logic with at least 8 correct, and explain each error in writing

Week 6: Deliver the GRAFCET/PLC solution and the energy comparison report, and pass an oral self-test explaining every design decision without notes

Week 8: Score at least 65% on both timed mock papers, with no domain below 50%, and show a written remediation plan for every topic below that threshold