2441 controls, visualize maintenance tasks, and build spatial understanding with high fidelity. These immersive simulations promote procedural accuracy, muscle memory, and technical fluency—capabilities that are difficult to develop through lectures or static digital content alone. Research further indicates that VR training reduces operational training costs, minimizes equipment downtime, and supports safe, repeatable practice opportunities across scenarios that would be impractical or unsafe to recreate physically (Barkokebas et al., 2025). VR’s value is amplified in mining contexts where operator error poses significant risk to human life and equipment integrity. Simulations can replicate high-stakes tasks—such as operating loaders, drilling rigs, or haul trucks—without exposing new hires to operational hazards, thereby accelerating the journey from novice to competent technician. VR offers cognitive advantages that align directly with the challenges of mining education. Research indicates that immersive learning environments simulate authentic cognitive load, requiring learners to make decisions, troubleshoot issues, and navigate complex settings much as they would on the job. This leads to deeper conceptual understanding and more effective transfer of knowledge to real-world tasks. As adoption grows, VR is being integrated into broader mining workforce development strategies. Industry analyses highlight diverse applications now in use or under development, including: • Virtual mine site tours for onboarding and recruitment • Simulated maintenance procedures for complex machinery • AI-enhanced decision-making drills • Multi-user training environments for collaborative problem solving Looking forward, integration with Augmented Reality (AR), digital twins, and AI will deepen VR’s impact, offering seamless pathways from immersive conceptual learning to real-world troubleshooting and performance support. 5. APPLYING BLOOM’S TAXONOMY TO VR TRANING IN MINING Designing effective VR-based training for the mining industry requires more than immersive technology; it requires structuring learning activities that intentionally scaffold cognitive development. Bloom’s Taxonomy provides a research-backed framework that guides this process by organizing cognitive tasks into hierarchical levels—from foundational knowledge to advanced problem solving. When VR learning experiences are mapped to these levels, new mining technicians can progress from understanding basic concepts to confidently performing complex procedures in realistic, high-pressure situations. Remembering: Building Foundational Knowledge Through Immersive Exploration At the base of Bloom’s Taxonomy, VR supports remembering by enabling learners to explore virtual mine environments, identify key equipment components, and recall safety protocols in a visually rich, contextually accurate setting. Instead of relying on static diagrams, learners can walk around VR models of haul trucks, conveyors, or crushers, observing where components are located and how systems interconnect. VR allows repeated exposure without demanding equipment downtime, strengthening memory through spatial and visual cues. EXAMPLE VR ACTIVITIES: • Exploring a virtual haul truck engine bay to identify major components • Viewing equipment labeling overlays that reinforce terminology • Touring a simulated underground drift to recognize hazard signage
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