iXRLabs

VR Module · Mechanical · Civil · Materials · Engineering

Universal Testing Machine

Strength of Materials · Tensile Testing · Stress–Strain

Branch EngineeringStream Mechanical · Civil · MaterialsType Simulation Topic Strength of Materials · Tensile Testing · Stress–StrainLevel UndergraduateDuration 45 minHeadset Meta Quest · WebXR · ClassVRLanguage English

See it

Inside the module.

Close-up of a test specimen mounted between the grips of the virtual UTM
Mount a specimen in the grips and pull it to failure.
View file
Live results - stress–strain curve and calculated material properties.

Learning objectives

By the end of this module, students will be able to:

  • Understand the working of a Universal / tensile testing machine

  • Prepare and mount a virtual test specimen in the grips

  • Select different engineering materials and compare their tensile behaviour

  • Observe load, elongation, stress, strain, yielding, necking, and fracture

  • Calculate and interpret Young's modulus, yield strength, ultimate tensile strength, and % elongation

  • Read stress–strain curves for ductile, brittle, metallic, and polymeric materials

"## A tensile test you can run as many times as you like.

A Universal Testing Machine (UTM) measures how materials behave under tensile or compressive load. In a tensile test a specimen is pulled until it deforms and fractures, revealing stiffness, strength, ductility, elasticity, plastic deformation, and the failure point.

This is a fully dynamic experiment, not a fixed animation. Students enter a virtual materials lab, create a specimen, choose a material, position it in the grips, and start the test - watching it elongate in real time while the system calculates load, displacement, stress, and strain.

The backend uses real material datasheets and first-principles calculations, so different materials behave differently under the same conditions: ductile steel yields, strain-hardens, necks, and fractures, while a brittle material fails with little elongation. The module also recreates common lab errors - poor alignment, wrong grips, incorrect load-cell capacity, defective specimen edges - as safe, repeatable scenarios that consume no physical specimens.

The 7thi AI tutor sits alongside the whole experience, scaffolding the difficult parts and giving subject-aware answers in context. Built-in assessment lets faculty see, per student, who has grasped which concepts - without grading another paper."

Syllabus alignment

Where this module fits.

ABET (United States)

Supports ABET Student Outcome 1 - engineering problem-solving in material behaviour, stress–strain analysis, and mechanical properties - and Outcome 6 through experimentation, data interpretation, and curve analysis. Detailed mapping available on request.

AICTE / NEP 2020 (India)

Maps to Strength of Materials, Materials Science, Engineering Mechanics, and Manufacturing lab outcomes, supporting experiential, simulation-led, virtual-lab learning aligned with NEP 2020.

University syllabi

We map this module to your institution's own tensile-test experiments and material-testing lab manual - course outcomes, lab rubrics, and assessment - before deployment.

NBA (India)

Maps to Course Outcomes in Strength of Materials, Materials Science, Engineering Mechanics, and the Mechanical Testing Laboratory, contributing to POs around engineering knowledge, investigation, and modern tool usage (especially PO4 and PO5).

See Universal Testing Machine live in a demo.

Thirty minutes, the full module, your curriculum questions answered.