Galicia PAU Technology and Engineering II study plan

Derive and apply equilibrium equations for 2D particle and rigid-body systems, resolving inclined-plane and two-force-member cases without reference notes

Construct shear-force and bending-moment diagrams for simply supported, cantilever and overhanging beams under point and uniformly distributed loads

Compute normal and shear stress, strain and elastic deformation for axially loaded bars and beams, selecting the correct section property (A, I, W)

Classify the four basic mechanisms (lever, pulley, wheel-and-axle, inclined plane) and calculate their mechanical advantage and efficiency in worked problems

Set up a personal formula sheet covering statics and strength of materials, capped at one A4 side

Analyse velocity ratios and torque transmission in gear trains, belt-and-pulley drives and screw mechanisms

Identify and sketch the standard machine elements (bearings, shafts, couplings, clutches, brakes, springs) and justify a selection for a stated duty

Apply failure criteria (yield, ultimate, fatigue indicators, safety factor) to simple design checks

Solve 10 mixed mechanics problems under a 90-minute timed block to build exam pacing

Solve DC circuits using Kirchhoff's laws, mesh and node analysis, Thevenin and Norton equivalents, and superposition

Compute AC series/parallel RLC behaviour: impedance, phase angle, power factor, active, reactive and apparent power

Explain the operating principle, equivalent circuit and starting methods of DC motors and three-phase induction motors

Identify the function and typical application of diodes, thyristors, BJTs, MOSFETs and IGBTs in rectifier, chopper and inverter circuits

Convert between number systems and simplify logic expressions with Karnaugh maps and Boolean algebra

Design combinational logic circuits (encoders, decoders, multiplexers, adders) from a truth table to a gate-level schematic

Analyse sequential circuits: flip-flop state tables, simple counters and shift registers

Distinguish open-loop from closed-loop control and compute steady-state error and settling behaviour for first-order systems

Select sensors (temperature, position, proximity, force, flow) and actuators (DC/stepper/servo motor, solenoid, cylinder) for a given automation task and justify the choice

Explain PLC scan cycle, I/O addressing and ladder-logic rungs for a simple interlock, and describe robot degrees of freedom and basic kinematics

Classify materials (metals, polymers, ceramics, composites) and relate atomic/crystal structure and defects to macroscopic properties

Match property requirements (density, stiffness, toughness, conductivity, corrosion resistance) to material families and select a material for a stated component

Interpret tensile test curves to extract yield strength, ultimate strength, elongation and modulus, and relate hardness scales to strength

Describe non-destructive and destructive testing methods (ultrasound, radiography, dye penetrant, impact, fatigue) and state when each is appropriate

Explain heat treatments (annealing, quenching, tempering, surface hardening) and their effect on microstructure and properties

Identify pneumatic and hydraulic components (compressor, pump, reservoir, filter-regulator-lubricator, directional valve, flow-control valve, pressure-relief valve, cylinder, motor) and state their symbol and function

Read and draw ISO 1219 circuit diagrams using the correct symbols, including 5/2 and 3/2 valves and their actuation types

Size a cylinder for a given force and speed, and calculate air consumption and hydraulic pump flow/pressure requirements

Analyse speed control by meter-in versus meter-out circuits and explain the purpose of a differential circuit

Trace a fault in a described circuit and propose a corrective modification

Compare machining, forming, casting and joining processes and select an appropriate process for a given part, batch size and tolerance

Calculate machining parameters (cutting speed, feed, depth of cut, machining time) for turning and milling

Apply metrology concepts: instrument selection, resolution, uncertainty, tolerance and fits, and interpret a measurement result against a specification

Distinguish renewable and non-renewable energy sources and describe conversion chains for thermal, hydro, wind and photovoltaic generation

Compute energy efficiency and simple environmental indicators (specific consumption, CO2 per kWh) for a stated installation

Consolidate all seven domains into a single condensed revision sheet per domain, no longer than one A4 side each

Complete two full timed mock exams under exam conditions and mark them against the official weighting of the domains

Re-solve every previously logged error and confirm each is now correct without notes

Practise written justification answers so that each calculation is followed by units, a sanity check and a concluding sentence