La Rioja PAU Tech & Engineering II (UR) study materials
La Rioja PAU Tech & Engineering II (UR) study resources

La Rioja PAU Tech & Engineering II (UR) study plan

La Rioja PAU Tech & Engineering II (UR) · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Mechanical systems and structures: statics, strength of materials, mechanisms and machine design

  • Resolve ten 2D static equilibrium problems (beams, frames, cables) drawing the free-body diagram before any calculation

  • Compute axial stress, strain and deformation for bars in series and parallel, including indeterminate cases

  • Calculate section properties (centroid, moment of inertia) for five common cross-sections and apply the parallel-axis theorem

  • Build a one-page formula sheet linking normal stress, shear stress, bending moment and deflection formulas with their validity conditions

Your checkpoint

A 15-problem mechanics portfolio with full free-body diagrams, section-property tables and worked numerical answers, self-marked against a formula sheet

Week 2

Mechanical systems and structures: statics, strength of materials, mechanisms and machine design

  • Design and verify a shaft under combined bending and torsion using an equivalent-stress criterion

  • Analyse a four-bar linkage and a gear train to obtain output speed, torque and mechanical advantage

  • Select bearings and a belt or chain drive for a given load case, justifying the choice with catalogue-style data

  • Identify and sketch the failure mode expected for five given structural or machine components

Your checkpoint

A machine-element design dossier for one small transmission (shaft, gears, bearings, belt) with calculations, a labelled sketch and a written justification of each selection

Week 3

Electrical and electronic systems: circuits, machines, power electronics and control

  • Solve DC and single-phase AC circuits using node and mesh analysis, confirming results with phasor diagrams

  • Compute active, reactive and apparent power and correct a load's power factor with capacitors

  • Analyse the operation of a three-phase induction motor from its equivalent circuit and torque-slip curve

  • Explain the switching behaviour of a diode bridge, a buck converter and a single-phase inverter with waveform sketches

Your checkpoint

A circuit workbook of 12 solved problems (at least 4 AC, 3 three-phase motor, 3 power-electronics) with phasor or waveform sketches and a power-balance check for each

Week 4

Electrical and electronic systems: circuits, machines, power electronics and control & Automation, control and robotics: sensors, actuators, PLCs and programmable systems

  • Design combinational and sequential logic (truth table, Karnaugh map, flip-flops) for three stated control functions

  • Model an open-loop and closed-loop system as a block diagram and derive its transfer function

  • Tune a PID controller for a first-order plant and interpret the effect of each term on the step response

  • Wire and simulate a PLC ladder program for a start-stop interlock with sensors and an emergency stop

Your checkpoint

A simulated control project: block diagram, transfer function, PID tuning record, and a ladder-logic program with a documented input/output list and test results

Week 5

Materials science and engineering: properties, structure, testing and selection criteria

  • Classify ten engineering materials by atomic structure and bonding and predict the property trend each class implies

  • Interpret a tensile stress-strain curve and extract yield strength, ultimate strength, modulus and ductility

  • Compare heat-treatment routes (quenching, tempering, annealing) and state the resulting microstructure and property change

  • Select a material and a non-destructive or destructive test method for three stated service conditions, with justification

Your checkpoint

A material-selection report for three components using an Ashby-style property comparison table plus a written justification of the material and the test plan for each

Week 6

Energy and power: energy sources, generation, transport, efficiency and sustainability

  • Compare conventional and renewable generation technologies on efficiency, dispatchability, cost and emissions

  • Compute the energy yield of a photovoltaic or wind installation from resource data and a capacity factor

  • Trace electricity from generation through transmission and distribution and explain transformer and line losses

  • Evaluate efficiency measures for a building or industrial process and quantify the potential saving

Your checkpoint

An energy audit of one real installation or household, with measured or estimated consumption, a generation or efficiency proposal, and a payback calculation

Week 7

Graphic expression and technical drawing: representation, dimensioning, CAD and standards & Technological projects and product design: methodology, documentation, budgeting and ICT tools

  • Produce multiview orthographic drawings of three parts applying first-angle projection and the relevant ISO conventions

  • Dimension a part fully with tolerances, fits and surface finish symbols, avoiding over- and under-dimensioning

  • Draft a project memory document: objectives, constraints, work breakdown, Gantt schedule and risk list

  • Build a budget for a small technical project covering materials, labour, and overhead, and compute a break-even or total cost

Your checkpoint

A complete project dossier for one small product: orthographic drawing set with dimensions and tolerances, specification, Gantt chart, risk register and itemised budget

Week 8

Materials science and engineering: properties, structure, testing and selection criteria & Mechanical systems and structures: statics, strength of materials, mechanisms and machine design & Electrical and electronic systems: circuits, machines, power electronics and control & Energy and power: energy sources, generation, transport, efficiency and sustainability & Automation, control and robotics: sensors, actuators, PLCs and programmable systems & Graphic expression and technical drawing: representation, dimensioning, CAD and standards & Technological projects and product design: methodology, documentation, budgeting and ICT tools

  • Complete two full timed mock exams under PAU conditions and score them against the official marking criteria

  • Diagnose the three weakest domains from mock results and re-solve every missed item without notes

  • Condense all seven domains into a single two-page recall sheet of formulas, standards and typical question patterns

  • Rehearse written justifications so that each answer states the criterion, the calculation and the conclusion

Your checkpoint

Two marked mock exams with an error log, a corrected re-solve of every missed question, and a final two-page formula and standards recall sheet

Milestones

Week 2: Can solve an unseen combined bending-and-torsion shaft problem and a four-bar linkage speed analysis in under 25 minutes each, with correct units and a free-body diagram

Week 4: Can move from a word-stated control requirement to a truth table, a transfer function and a working ladder program without consulting notes, and explain each PID term's effect on a step response

Week 6: Can compute a photovoltaic or wind installation's annual yield and payback from resource data, and correctly trace and quantify losses from generation to consumer

Week 7: Can produce a fully dimensioned first-angle orthographic drawing and a costed project schedule that a third party could execute without asking clarifying questions

Week 8: Both mock exams scored at or above 70 percent overall with no domain below 50 percent, and every missed item re-solved correctly without notes