Immersive Learning Technologies Training Course

Participants can identify and prioritise workplace problems suitable for immersive learning.

• Performance consulting distinguishes knowledge gaps from environmental or process barriers
• Critical incident analysis identifies errors, consequences and required recovery actions
• Frequency, risk and cost matrix prioritises candidate immersive learning tasks
• Job observation notes capture physical actions, decisions and environmental cues
• Interview guides elicit expert heuristics, exceptions and novice failure points
• Use-case hypothesis links immersive practice to measurable business performance

Participants can translate a workplace task into observable actions, decisions and standards.

• Hierarchical task analysis breaks work into goals, steps and substeps
• Cognitive task analysis reveals cues, judgments and expert decision rules
• Decision-point mapping identifies choices, consequences and escalation thresholds
• Observable performance criteria define correct actions and acceptable tolerances
• Error taxonomy separates slips, rule errors and knowledge-based mistakes
• Subject-matter expert validation resolves task variation and local procedures

Participants can write measurable objectives and select suitable immersive practice structures.

• Mager performance objectives specify behaviour, conditions and acceptable performance standards
• Bloom's taxonomy differentiates recall, application, analysis and decision-making outcomes
• Deliberate practice cycles combine repetition, feedback and increasing task difficulty
• Scaffolding sequences orient novices before timed or high-consequence simulations
• Mastery criteria define progression, remediation and reassessment rules
• Pre-briefing content prepares learners for immersive procedures and scenario context

Participants can design immersive learning experiences that support attention, comfort and retention.

• Cognitive load theory manages intrinsic, extraneous and germane processing demands
• Spatial cues direct attention without obscuring task-relevant environmental information
• Embodied interaction matches gestures and movements to real workplace actions
• Cybersickness risk factors include locomotion, latency and visual mismatch
• Comfort settings address session duration, seated modes and locomotion alternatives
• Debrief prompts convert immersive events into transferable workplace learning

Participants can structure realistic immersive scenarios around meaningful workplace decisions.

• Scenario-based learning frames context, role, stakes and performance expectations
• Branching logic maps decisions, consequences, feedback and recovery routes
• Trigger events introduce ambiguity, pressure and changing operational conditions
• Decision trees distinguish critical paths from optional exploration pathways
• Progressive disclosure controls information flow during complex problem-solving scenarios
• Authentic dialogue reflects customer, colleague and supervisor communication patterns

Participants can produce a clear storyboard for content production or vendor briefing.

• Scene inventory records location, learner role, assets and interaction purpose
• Three-column storyboards align visuals, audio and learner actions
• Interaction specifications define gaze, controller, hand-tracking and voice inputs
• Feedback scripts explain errors without interrupting scenario flow unnecessarily
• Asset lists identify 3D models, photographs, recordings and reference materials
• Acceptance criteria convert design intent into testable production requirements

Participants can design AR support that assists task execution without overloading workers.

• AR overlays provide step prompts, labels and contextual equipment information
• Marker-based, markerless and location-based AR matched to operating conditions
• Just-in-time guidance distinguishes support needs from formal learning requirements
• Field-of-view constraints shape placement of annotations and visual prompts
• Remote expert assistance combines shared views, annotations and escalation protocols
• AR content governance controls revision dates, procedural ownership and approvals

Participants can specify VR simulations for skill rehearsal, judgement and assessment.

• Virtual environments reproduce hazards, equipment states and operational consequences
• Simulation fidelity balances physical realism, functional realism and budget
• Timed scenarios test prioritisation under workload, uncertainty and interruptions
• Virtual characters support difficult conversations, coaching and conflict practice
• Assessment checkpoints capture critical actions, omissions and decision quality
• After-action review links simulation evidence to workplace performance standards

Participants can select and design 360-degree media for observation, orientation and discussion.

• 360-degree video suits site familiarisation, observation and guided incident review
• Hotspots direct learner attention to procedural cues and safety conditions
• Guided viewing questions turn passive footage into structured analytical practice
• Linear video, 360 video and VR compared through interaction requirements
• Shot planning controls camera placement, audio capture and learner sightlines
• Mixed-media pathways combine briefing materials, immersion and post-session reflection

Participants can define a proportionate technical architecture for an immersive learning pilot.

• Standalone, tethered and mobile headsets compared by deployment requirements
• Device management covers charging, updates, account control and inventory
• Learning platform integration considers LMS, SSO and completion reporting
• Content delivery options include native applications, WebXR and streamed experiences
• Bandwidth, storage and network security requirements inform rollout planning
• Technical proof-of-concept tests compatibility before full content production

Participants can incorporate accessibility, physical safety and inclusion requirements into immersive designs.

• WCAG 2.2 principles inform perceivable, operable, understandable and compatible learning content
• Alternative pathways support learners unable to use head-mounted displays
• Captions, transcripts and audio description improve access to immersive media
• Physical space checks address boundaries, trip hazards and supervised use
• Health screening identifies motion sensitivity, visual limitations and contraindications
• Inclusive avatars, voices and scenarios avoid stereotyping and exclusion

Participants can define learning data requirements that support improvement and accountability.

• xAPI statements record actor, verb, object and contextual learning data
• Event taxonomy defines tracked actions, decisions, errors and completion states
• Learning Record Stores retain immersive activity data beyond LMS completion records
• Data minimisation limits collection to justified learning and evaluation purposes
• Dashboard metrics distinguish engagement signals from demonstrated competence
• Data retention schedules assign ownership, access rights and deletion rules

Participants can identify governance controls for immersive learning data, content and devices.

• Privacy impact assessment identifies personal data, purposes and processing risks
• Biometric and movement data require explicit collection and access decisions
• Role-based access control limits learner, manager, administrator and vendor permissions
• Content moderation procedures address harmful behaviour in multi-user environments
• Security review covers device loss, application permissions and network exposure
• Ethical design questions test consent, surveillance and psychological safety

Participants can prepare a vendor brief and evaluate immersive learning suppliers consistently.

• Request-for-proposal requirements define outcomes, users, scope and technical constraints
• Vendor scorecards compare instructional capability, production quality and support capacity
• Portfolio review tests relevance, usability and evidence behind supplier claims
• Intellectual property clauses address source files, asset rights and reuse
• Service-level requirements cover fixes, updates, response times and support
• Prototype milestones reduce uncertainty before committing to full production

Participants can create a justified pilot plan with costs, benefits, risks and decision gates.

• Total cost of ownership includes devices, content, licences, support and replacement
• Benefit mapping links learning outcomes to quality, safety, time and error measures
• Pilot scope defines population, sites, scenarios, duration and comparison conditions
• Risk register records adoption, technical, safety, privacy and supplier risks
• Stage-gate decisions establish evidence thresholds for pause, revise or scale
• Stakeholder map assigns sponsor, owner, subject expert, IT and procurement responsibilities

Participants can plan learner onboarding, facilitation and operational support for immersive learning.

• Facilitator guides sequence setup, pre-brief, observation, debrief and reset
• Learner onboarding explains device hygiene, controls, boundaries and help procedures
• Train-the-trainer plans build local confidence and consistent session delivery
• Communications plans address learner concerns, manager expectations and scheduling logistics
• Support playbooks define troubleshooting routes, incident reporting and escalation
• Adoption measures track participation, completion, confidence and repeat usage

Participants can evaluate immersive learning outcomes and prioritise improvements using evidence.

• Kirkpatrick Model evaluates reaction, learning, behaviour and organisational results
• Baseline measures establish pre-pilot performance, error rates and confidence levels
• Observation rubrics assess task quality during simulated and workplace performance
• Comparison groups strengthen interpretation of pilot outcome data
• Usability testing identifies friction in controls, instructions and scenario flow
• Improvement backlog prioritises content changes by impact, effort and risk

Participants can build, review and present a complete immersive learning solution blueprint for a defined workplace capability problem.

• Problem statement connects operational evidence, target users and capability gap
• Use-case assessment justifies the selected immersive format and delivery model
• Task analysis and objectives define observable workplace performance requirements
• Scenario storyboard specifies learner journey, decisions, feedback and assessment
• Pilot plan integrates technology, accessibility, governance, cost and evaluation controls
• Peer review tests feasibility, evidence quality and stakeholder readiness
• Sponsor presentation communicates recommendation, investment rationale and next decisions