Real decisions made in simulation: How XVR 10 is extending immersive wildfire training
Iain Hoey
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Chris Thain, UK Business Development Manager at LearnPro Group, explains how XVR 10 extends immersive training with wildfire, emissions and image-capture modules for safer command decisions
XVR 10 is the latest release of the XVR On Scene platform already adopted by hundreds of fire and rescue organisations.
The update introduces three integrated modules – Wildfire Simulation, Emissions Modelling and Photo Mode – that allow instructors to recreate fast-moving vegetation fires, track toxic plumes in real time and capture still images for forensic debriefs.
Because every addition sits inside the same three-dimensional environment, incident commanders can rehearse strategy, allocate resources and gather evidence without tying up front-line appliances or exposing crews to danger.
The new toolkit does not replace the water, smoke and casualty systems that made earlier versions popular; it extends them.
Practitioners who have used XVR for structural fires or road-traffic collisions will recognise the drag-and-drop interface and the detailed resource logs but will now find fresh controls that mirror hazards dominating today’s call-outs.
By removing physical risk and compressing logistics into a few clicks, XVR 10 lets services run more frequent, more demanding exercises while preserving operational availability.
Wildfire simulation
Recent fires along the Los Angeles wildland–urban interface underline how quickly flame fronts can overwhelm built-up areas.
Rising temperatures, longer dry seasons and new housing on once rural slopes mean that almost every brigade now lists vegetation fire among its top risks.
Traditional training helps but never quite matches the speed, scale or unpredictability of a live hillside blaze.
XVR 10 fills that gap by providing a repeatable, scientifically grounded Wildfire Simulation that large cohorts of officers can use simultaneously.
The model draws on advice from European subject-matter specialists and uses wind direction, terrain profile, fuel load, plant type and moisture level to calculate flame behaviour.
As the session runs, trainers can lock certain factors, then introduce sudden shifts such as a 20-kilometre-per-hour wind change or a late-afternoon drop in humidity.
Within seconds the fire edge alters shape and pace, forcing the incident commander to reassess priorities.
Because the screen updates in real time, crews witness how a single tactical choice – lighting a back burn, for example – either slows the head fire or, if mistimed, drives a new flank.
Resource management follows real-world limits.
If a county owns two helicopters, only two appear in the scenario; additional appliances arrive after realistic travel times, not instant teleportation.
This insistence on authentic numbers encourages disciplined requests and sharpens prioritisation.
Officers can order ground crews to cut firebreaks, call for retardant drops or stage evacuations at trigger points they define on the map.
Each action is logged, creating a timeline the group can replay during the hot debrief.
A virtual wildfire also provides a safe venue for joint drills.
Police officers can test road-closure plans while paramedics rehearse casualty collection behind a shifting smoke curtain.
Utility engineers may practise grid isolation or gas-line shutdown without leaving their office.
All participants share one live map, hear each other over integrated voice, and refine inter-agency language long before a real incident forces them together.
Perhaps the greatest advantage is the chance to experiment.
Officers can try an aggressive frontal attack, watch it fail, reset the clock and explore a defensive strategy – all within one morning.
Lessons are fast, vivid and cheap, giving new commanders confidence that textbook doctrine will hold under pressure.
Emissions modelling
When warehouses or chemical plants burn, the flames are often less dangerous than the smoke.
Fine particulates, acidic gases and carcinogenic compounds can migrate kilometres downwind, threatening crews and communities for hours after ignition.
Knowing where that plume will travel is now a core task for any incident commander.
XVR 10 addresses this need by layering an emissions model over its immersive scene.
The module lets instructors enter source strength as kilograms per second or select a breached vessel so the software calculates release rate.
Atmospheric data can come from the built-in library or, if available, a live feed.
Terrain roughness is imported automatically, ensuring the plume bends and pools in believable ways.
Colour bands then hover above the three-dimensional landscape, refreshing every few seconds to show concentration at ground level and in five-metre steps aloft.
With a glance at the display, commanders see which streets require shelter-in-place advice, where self-contained breathing apparatus is mandatory, and which evacuation routes avoid the densest cloud.
Because the timeline slider rolls forward four hours, crews can test alternative ventilation tactics or resource plans without rerunning the scenario.
A warehouse door left open, for instance, might vent carbon monoxide quickly yet drive hot gases across the only safe access road.
Closing that door traps heat but may keep the plume away from a nursing home.
Such trade-offs become clearer when the visual model shows consequences minute by minute.
Repeated exposure to emission forecasts builds a stronger link between hazmat theory and field decisions.
Officers start to match protective clothing to numerical exposure rather than intuition.
Public-information staff refine language for media releases, anchoring their statements to the moving plume instead of generic warnings.
Environmental-compliance officers gain a realistic context for the air-quality thresholds they monitor, making later audits smoother and more collaborative.
Photo mode
Post-incident learning stands or falls on evidence.
Written notes capture intent, and continuous video records movement, but each misses something.
A note cannot show the smoke roll that somebody failed to spot; a roaming camera may face the wrong way when a decisive moment occurs.
XVR 10’s Photo Mode bridges that gap by letting trainers freeze any viewpoint, adjust depth of field and store a crisp image without pausing the session.
During a live run, the instructor can zoom on a breached valve, highlight the glow under a warehouse roof or frame a casualty lying behind debris.
Each capture drops into a timeline pane and accepts annotations – circles, arrows, questions – ready for debrief.
Because the simulation continues in the background, key frames accumulate without breaking immersion.
At review, the group steps through the images, seeing exactly what cues were available when a decision was made.
The value extends beyond immediate feedback.
Services can file image sets in their learning-management system, tagging each by hazard type and difficulty.
When a new cohort starts a command course, tutors pull up earlier captures to illustrate best practice and recurring pitfalls.
Auditors who need proof that an officer met national standards can trace decisions to visual evidence rather than second-hand testimony.
Over time, this growing library becomes a catalogue of lessons specific to the organisation’s geography, equipment and doctrine.
Why XVR 10 matters
The three modules broaden XVR’s reach but do not complicate its use.
A mid-range gaming PC still runs the software; a basic local network still links stations, classrooms or remote offices.
What changes is the depth of scenario available on that hardware.
An evening shift can now practise a hillside fire, a chemical-plant leak and a photo-based debrief without leaving the appliance bay.
Financial benefits follow.
Live burns demand fuel, facility hire and protective gear that soon erode a training budget.
A virtual drill reduces those costs to electricity and instructor time, making weekly command practice achievable rather than aspirational.
For managers tracking competence, exported logs, plume maps and annotated images give hard evidence of progress, replacing vague recollections with measurable data.
The platform suits more than municipal brigades.
Forestry services can rehearse landscape-scale containment plans.
Industrial fire teams can test shutdown sequences while the control room watches.
Civil-protection agencies can bring power, water and transport representatives into the same virtual space to rehearse coordinated evacuation from a spreading smoke cloud.
Regardless of sector, the common gain is an authentic problem, tackled safely, repeated until mastered.
XVR 10 mirrors the hazards most crews now face – rapid wildfires, toxic plumes and the demand for evidence-based review – inside one cohesive environment.
By giving firefighters, police and medical responders a realistic but risk-free arena, it delivers more training hours, sharper decision-making skills and clearer proof of competence.
When the next call arrives, that preparation translates into faster, better-informed actions on the incident ground.