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
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
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
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
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
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
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
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
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