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
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
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
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
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
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
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
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
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