An immersive simulation that guides technicians through fusebox inspection, multimeter preparation and voltage testing inside a controlled, repeatable virtual environment.
Traditional technical training can be constrained by equipment availability, instructor time and the risks of practising around live machinery. This experience converts a multi-step maintenance procedure into a guided simulation that learners can repeat at their own pace.
The learner does not simply watch the procedure—they locate, open, prepare, connect, test and complete it.
Electrical troubleshooting requires correct sequencing, tool handling and situational awareness. Physical training can be expensive, constrained and unsuitable for early-stage practice.
The simulation recreates the equipment, tools and sequence inside a first-person workspace. Each correct interaction advances the learner through the training state machine.
The experience breaks a technical standard operating procedure into clear actions, reducing cognitive overload while retaining meaningful hands-on participation.
The learner is placed inside a realistic industrial environment and oriented toward the relevant machine.
A virtual instructor explains that the machine has stopped and introduces the troubleshooting objective.
Directional cues and component highlighting guide the user to the correct electrical panel.
The learner grabs the cover handle and reveals the internal electrical components for inspection.
The virtual meter and test leads are collected and prepared as functional training objects.
Spatial interaction zones validate that both probes are placed at the correct test points.
The multimeter displays a reading after the connection is correctly completed.
The checklist confirms every action and closes the scenario only after all required steps are completed.
First-person spatial cues, tool handling and in-context feedback work together to make the learning sequence understandable and memorable.
Every layer supports a specific training objective—from accurate object handling to consistent process delivery and measurable completion.
Grab, open, position and operate equipment through intuitive controller or tracked-hand input.
The maintenance workflow is divided into sequential tasks with clear contextual instructions.
The system confirms whether the correct object, location and action have been selected.
Guided onboarding can evolve into practice, assessment and recertification modes.
Completion time, attempts, missed steps and errors can feed a dashboard or LMS.
Learners can repeat procedures without using live equipment or interrupting operations.
The architecture separates scenario content from core interaction mechanics, making it easier to extend the platform with new equipment, procedures and assessment logic.
The solution provides a scalable foundation for onboarding, refresher training, procedural standardisation and competency assessment.
Introduce electrical procedures in a controlled environment before live-equipment exposure.
Give every learner the same sequence, instructions and validation criteria across locations.
Allow users to revisit difficult actions without consuming physical resources or trainer time.
Add equipment faults, assessment modes, voice guidance, multiplayer and LMS reporting.
In PwC’s controlled soft-skills study, VR learners completed training up to four times faster than classroom learners and were more focused during the learning experience.
This is third-party context—not a measured result from this simulation. Source: PwC VR learning study.
The final stack can be aligned to the target headset, visual-fidelity requirement, deployment model and enterprise integration landscape.
Real-time 3D engine for immersive simulation, rendering and application delivery.
Interaction logic, training-state management, validation rules and integrations.
Standards-based device layer for portable VR and mixed-reality deployment.
Optimised 3D modelling, UV preparation, animation and asset-production workflow.
Controlled source management, reviewable releases and collaborative delivery.
Technology names and marks are shown solely to identify a representative implementation stack. This case study is not sponsored by or affiliated with Unity Technologies or its affiliates; Unity and the Unity logo are trademarks or registered trademarks of Unity Technologies or its affiliates. OpenXR™ and the OpenXR logo are trademarks owned by The Khronos Group Inc. Other marks belong to their respective owners. The final production stack must be confirmed against the actual project implementation.
Devstree can help map the procedure, recreate the environment, engineer the interactions and deploy a scalable training solution across your workforce.