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Virtual reality in industry: uses, limits, conditions for adoption

On a production line, certain procedures only occur once a year. A cold start, a major failure, a lockout operation. The team must still know how to execute them without hesitation, often in an emergency. Repeating them on the actual installation is costly, immobilizes the tool, and exposes the equipment.

Virtual reality addresses this specific problem. It reconstructs the procedure in a simulated environment, where the operator can train as many times as necessary, without risk and without stopping the line. It applies to situations that cannot be reproduced on the ground, but not to all.

Three layers of reality coexist in industry. Virtual reality simulates a complete environment. Augmented reality adds markers to the real field of vision, without masking it. Mixed reality anchors 3D objects in the workshop. This page deals with the first.

What is industrial virtual reality?

La réalité virtuelle industrielle place l'opérateur dans une scène 3D générée par ordinateur, à l'aide d'un casque, de capteurs de mouvement et de contrôleurs. La scène reproduit un poste, une machine ou un site entier. Elle s'appuie souvent sur les modèles de conception existants et se relie au jumeau numérique de l'installation. Pour le fonctionnement et le matériel, voirqu'est-ce que la réalité virtuelle.

An operational virtual reality application integrates into the training plan, deploys on a fleet of headsets, receives updates, and produces usable usage data. A trade show demonstration stops at illustrating a possibility. The difference lies in deployment and lifespan.

Use cases of virtual reality in industry

Immersive training for operators

C'est l'usage le plus répandu. La scène reproduit le poste de travail et son environnement sonore. L'opérateur apprend un geste métier, s'entraîne à une intervention machine, répète une procédure de sécurité sans immobiliser la ligne. Le formateur suit la progression, rejoue les erreurs, évalue chaque session. L'approche convient aux gestes rares, aux savoir-faire détenus par quelques personnes proches du départ en retraite, et aux sites multiples qui doivent former au même standard. Voirformer vos équipes en réalité virtuelle.

Maintenance and intervention simulation

Préparer une intervention lourde sans accès à l'équipement mène souvent à des erreurs de séquence sur site. En réalité virtuelle, le technicien démonte le système pièce par pièce, teste l'ordre des opérations, repère les zones d'accès contraint et les outils manquants. Il arrive sur l'installation avec une procédure déjà éprouvée. L'usage vaut surtout pour les équipements indisponibles, dangereux ou installés loin. Voirsimulateur de formation à la maintenance.

Design review and prototyping

Valider un produit sur plan laisse passer des défauts d'assemblage et d'ergonomie, détectés plus tard sur un prototype physique coûteux. Une revue de conception en réalité virtuelle affiche la maquette numérique à l'échelle 1. Les équipes bureau d'études, méthodes et production examinent ensemble l'accessibilité, l'encombrement et l'ordre de montage avant l'usinage. Le nombre d'itérations physiques baisse. Voirrevue de conception en réalité mixte et virtuelle.

Ergonomics, safety, and risk training

Un poste mal conçu génère des troubles musculo-squelettiques et des arrêts. Une procédure d'urgence mal assimilée coûte plus cher encore. La réalité virtuelle simule le poste avant son installation, analyse les postures, et place l'opérateur dans une situation dangereuse sans l'exposer : départ de feu, fuite, évacuation. L'opérateur répète alors la formation aux risques sans conséquence réelle. Voirla formation en réalité augmentée face aux méthodes traditionnelles.

Assembly and industrialization

Before finalizing an assembly range, the methods simulate the sequence of operations in the 3D scene. They validate the order of gestures, size the workstation, test the layout and flows. The corrections focus on the model, not on an already assembled line.

Onboarding and attractiveness of jobs

Un nouvel arrivant visite le site en réalité virtuelle avant son premier jour, repère les zones, comprend le procédé. Les écoles et les forums de recrutement utilisent la même scène pour montrer un métier industriel sans déplacer un groupe en atelier. L'enjeu rejoint celui de laformation malgré la pénurie de compétences.

Applications by profession

ProfessionWhat virtual reality bringsRelated use case
R&D et bureau d'étudesExamine a 1:1 scale model, compare variants before machiningDesign review and prototyping
Methods and industrializationSimulate an assembly range, validate the order of operations and the layoutAssembly and industrialization
ProductionTrain operators in the gesture without stopping the lineImmersive training for operators
MaintenancePrepare for a heavy intervention, test the disassembly sequenceMaintenance and intervention simulation
QSEAnalyze a workstation, train on emergency procedures without exposureErgonomics, safety, and risk training
TrainingStandardize skill development across multiple sites, track evaluationsImmersive training for operators
Innovation managementLink the simulation to CAD, PLM, and digital twin dataDesign review; integration into the information system

Project example

Context. A car manufacturer designs the trunk of its vehicles. 2D tools poorly show the interactions between elements, the storage volume, and the usability ergonomics.

Device. Myxed has set up an immersive design review: a real-time rendering engine and headsets to examine the 1:1 scale model.

Users. The design and engineering teams, gathered around the same model.

What has changed. The teams explore more variants, identify ergonomic issues upstream, and validate choices before creating an expensive physical prototype.

Lire le cas complet.

Benefits for an industrial company

  • Fewer physical prototypes. Defects are corrected on the digital model.
  • Fewer trips. Reviews and training are held remotely, around the same scene.
  • Less equipment downtime. Training does not tie up the line.
  • Better retention. The repetition of the gesture anchors the procedure.
  • Secure training. Dangerous situations are learned without exposure.
  • Faster validations. The teams make decisions in front of the 1:1 scale model.
  • Capitalized know-how. The gestures of experienced operators remain in a reusable scenario.

When virtual reality is not the right choice

Several situations do not justify virtual reality.

  • The procedure is simple and already well communicated. A sheet and on-the-job support are sufficient.
  • The user volume is low. The development cost is not recouped over five people.
  • L'opérateur doit agir sur la machine réelle. Le besoin relève alors de laréalité augmentée dans l'industrie or from the réalité mixte dans l'industrie, qui superposent l'information au terrain.
  • Physical sensations matter. Effort, temperature, and vibration are poorly replicated.
  • Hygiene constraints are strong. In a clean room or in food processing, sharing headsets becomes complicated.
  • Cyber motion sickness affects some users. A prior test remains necessary.

Virtual, augmented, or mixed reality: which technology for which situation

SituationAdapted technologyReason
Train offline on a rare or dangerous situationVirtual realityThe real environment does not mobilize
Validate a 1:1 scale model, as a team, before machiningVirtual realityNo physical object exists yet
Guide an operator while they act on the real machineAugmented realityInformation is added to the field of vision, hands-free
Superimpose a range or a 3D model onto the real workstationMixed realityVirtual objects anchor in the workshop

Pour le détail critère par critère, voirla différence entre réalité virtuelle et réalité augmentée.

Adoption conditions on the ground

The success of a project depends less on technology than on its integration into daily life.

  • Comfort and duration. Sessions of 15 to 30 minutes, a fitted headset, a scene designed to limit discomfort.
  • Hygiene. Cleaning protocol, disposable protections, named headsets when possible.
  • Transition from CAD to immersive scene. Resuming design formats, lightening the model for real-time rendering, version management by PLM, synchronization frequency set with the design office.
  • Link to other systems. Reporting results to the training LMS, reading MES data and field data for factory-related scenarios.
  • Data security and IT governance. Controlled hosting of 3D models, named accounts and authentication, offline mode, GDPR compliance, security certification on sensitive sites.
  • Fleet management. Deployment of updates, tracking of headsets, user accounts, usage statistics.
  • Offline mode. A workshop without a stable network must be able to launch the session without a connection.

Measured results

The published figures fall into two different categories, not to be confused.

Myxed feedback. In its training projects, Myxed observes a reduction in the time to competency of about 60%.

Market order of magnitude. As early as 2018, a Capgemini study noted that 29 to 31% of companies using augmented or virtual reality used it for repair and maintenance. In a case documented by the publisher Skyreal, the Atlantic group reported having halved the number of physical prototypes needed to design a heat pump, billed at €20,000 each. These values depend on the context: they provide a rough idea, not a guarantee.

Choose the indicator with the profession: training time, success rate on the assessment, error rate on first interventions, security incidents, machine downtime, prototypes avoided, trips eliminated.

How much does an industrial virtual reality application cost?

The development of the application represents the main item, ahead of the hardware. According to published market estimates, a first training demonstrator is around €25,000 to €45,000, while an industrialized and deployed device is more between €60,000 and €120,000. The functional scope and the level of integration into the information system cause these amounts to vary. In its training projects, Myxed sees profitability in 6 to 12 months.

How to launch a project

The Myxed method consists of four steps.

  • Frame. Identify the action or procedure to be addressed, the target audience, the value indicator.
  • Prototype. Build a first scenario, have it tested by the field teams, correct it with their feedback.
  • Build. Develop the application, integrate the 3D data, prepare for deployment.
  • Deploy. Launch a pilot at a site, train the trainers, extend to the fleet, then ensure support and updates.

Frequently asked questions

Un casque adapté au cas d'usage, autonome ou relié à un PC, des contrôleurs ou le suivi des mains, et parfois du retour haptique. Myxed reste agnostique sur le matériel et retient le casque en fonction du projet. Voirle comparatif des casques XR pour l'industrie.

By comparing a before and after on a business indicator: time to competency, error rate, machine downtime, cost of prototypes, travel. The calculation is made during the framing, with site data, not a sector average.

Yes. The same application is distributed on a fleet of headsets spread across multiple sites, with user accounts, centralized usage tracking, and an offline mode for workshops without stable network.

3D models from CAD remain sensitive data. The deployment provides for controlled hosting of the models, named accounts with authentication, and an offline mode for isolated workshops. Usage data complies with GDPR. On sensitive sites, the application goes through the client's security approval process.

Myxed conçoit desapplications de réalité virtuelle sur mesurepour l'industrie, du cadrage au déploiement. Un premier atelier de cadrage peut démarrer sous 4 à 6 semaines.

Décrivez-nous votre cas d'usage

Pour aller plus loin

Pour situer l'investissement : ROI de la digitalisation industrielle.

Le panorama complet des usages figure dans la réalité virtuelle en entreprise.