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Abintrax-Didact
Energy

Modular Fluid Dynamics System – Bernoulli, Pitot and Head Losses (Option 1)

Complete hands-on kit: experiments on flow rate, pressure, velocity and head losses with professional instruments (Pitot tubes, digital pressure gauges, fittings). From theory to data: verification of Bernoulli/continuity, instrument calibration, digital acquisition and analysis with reports ready for assessment. Industry-ready: practical and problem-solving skills applicable to hydraulic/pneumatic systems in energy, environment and automation.
MePA code: ABX-AR25051-2

About this solution

Lab Objectives

  • Study the behaviour of moving fluids o Analyse the main fluid dynamics quantities (flow rate, velocity, pressure, head losses). o Apply Bernoulli’s law and the continuity equation to interpret the behaviour of fluids in pipes and variable cross-sections. o Observe phenomena such as the boundary layer, vortices, flow separation and reattachment.
  • Use advanced teaching instruments o Read and interpret data from instruments such as Pitot tubes, nozzles, digital pressure gauges, calibrators and sets of fittings. o Acquire skills in instrument calibration and in recognising measurement uncertainty. o Carry out experiments varying key parameters (diameter, angles, constrictions, openings).
  • Understand the practical applications of fluid dynamics o Relate the observed phenomena to real hydraulic and pneumatic systems. o Assess the efficiency of pipes, constrictions and bends on the basis of measured head losses. o Develop an analytical approach to solving technical problems in fluid transport.

Educational Aims

  • Consolidate theory: turn concepts studied in class (Bernoulli’s equation, continuity, pipe resistance) into hands-on experiences.
  • Train observation and scientific reasoning: recognise visible fluid dynamics phenomena (vortices, free jets, losses) and link them to measured values.
  • Develop technical and lab skills: connect fluid circuits, read digital and analogue instruments, manage pressurised systems.
  • Teach the experimental method: plan experiments, collect data in an orderly way, analyse results and discuss possible sources of error.
  • Encourage collaboration: work in groups, share observations and produce complete technical reports.

Conclusion

By the end of the lab, students will have:

  • A clear grasp of the fundamental phenomena of fluid dynamics: they will be able to explain, with concrete examples, how pressure and velocity vary in pipes and fittings.
  • Gained practical skills: they will be able to carry out experimental measurements of flow rate, pressure and head losses with professional instruments.
  • Understood the importance of fluid system design: they will be able to assess design choices (bends, constrictions, free outlets) in terms of efficiency.
  • Developed a critical mindset: they will be able to compare experimental data with theoretical values, identifying any discrepancies and explaining their causes. This lab provides a solid foundation for the future study and design of fluid dynamics systems in the industrial, energy and environmental sectors. This solution includes technology systems that help foster inclusion and equal opportunities through innovative teaching methods. It is designed to promote active, collaborative learning.