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Mechanics Lab – Strength of Materials: Fatigue & Cantilever Tests with Digital Measurement (Solution 1)

Hands-on module on strength of materials: rotating bending fatigue tests (steel, brass, aluminium), cantilevers with vertical/angled loads, load cells and data acquisition to measure deflections, rotations and cycles. Comparison of materials, design choices and experimental analysis in line with industry and mechanical design.
MePA code: ABX-AR25021-2

About this solution

Lab Objectives

  • Understand the phenomenon of material fatigue o Analyse the resistance of materials (mild steel, brass, aluminium) to cyclic rotating bending stress, observing failure behaviour and remaining life cycles.
  • Study mechanical deformation with cantilever tests o Assess the structural response of cantilevers to vertical and angled loads, precisely measuring deflections and rotations, including under eccentric or asymmetric loading.
  • Develop skills in using digital measuring instruments o Use load cells, digital displays, graduated scales and data acquisition software, so that students can independently collect, process and interpret experimental information.
  • Train students in comparative materials testing o Compare the mechanical behaviour of different materials through controlled tests to understand how they are chosen in industrial and engineering design.

Educational Aims

  • Applying theory to practice The fatigue machine and the cantilever apparatus make it possible to put into practice theoretical concepts of solid mechanics and strength of materials, improving understanding through direct experience.
  • Developing experimental analysis skills Students learn to carry out experiments independently, monitor critical parameters such as number of cycles, deformations and bending angles, and use digital instruments for precise measurements.
  • Preparing for engineering materials selection Knowing how materials respond to dynamic and static loads helps train future technicians and engineers who can judge which material to use under real operating conditions.

Conclusion

The equipment described offers a valuable opportunity to tackle the fundamental topics of strength of materials, mechanical fatigue and cantilever structural behaviour with scientific rigour and practical application. Students can thus link the concepts of mechanics theory with the observation of real phenomena, comparing experimental results and simulating industrial scenarios. The use of multiple specimens, digital sensors and support software effectively integrates teaching with technical, vocational and lab-based training, providing skills that are valuable in the workplace and in advanced mechanical design. This solution includes technology systems that help foster inclusion and equal opportunities through innovative teaching methods. It is designed to promote active, collaborative learning.