What's Next for Aviation Simulation Training

The aviation simulation industry has always moved deliberately. That is not a criticism. In a field where training outcomes directly affect flight safety, caution is absolutely appropriate. Regulatory frameworks exist for good reason, and new technology earns its place in the training environment through evidence, not enthusiasm.

But something is shifting.

The pace of change in simulation technology, training philosophy, and regulatory thinking has accelerated noticeably in the past two to three years. The technologies that were described as emerging at the last industry event are, in many cases, already operational somewhere in the world. The questions that regulators were cautious about engaging with are now, in the words of one training industry leader, firmly on their agenda.

For operators and training organisations thinking about simulation capability, understanding what is coming, and what it means practically, is no longer a future-planning exercise. It is a present-day strategic decision.

Here is our read on what is happening and where it is heading.

AR, VR and Mixed Reality - Past the Proof of Concept

A few years ago, the conversation about augmented and virtual reality in aviation training was largely theoretical. Interesting technology. Unclear regulatory pathway. Uncertain training transfer.

That conversation has moved on.

The global AR and VR aviation training market is projected to grow from approximately two billion dollars in 2025 to twelve billion dollars by 2033, with a compound annual growth rate of twenty-five percent. Rathen than this being a speculative forecast, it's a reflection of investment decisions that have already been made by airlines, training organisations, and militaries around the world.

Lufthansa has already trained more than 20,000 crew members using VR simulation, particularly for high-stress emergency scenarios that are difficult to replicate in conventional training environments. Qantas is opening a new Sydney ground training facility in 2026 designed specifically to accelerate pilot training across its airlines, with dedicated VR spaces built in from the outset.

At the maintenance end of the industry, the US Air Force's 15th Maintenance Group introduced a VR platform in June 2025 enabling technicians to carry out everything from pre-flight checks to full engine runs in a digital environment, with early results showing stronger confidence and competence before trainees touched live aircraft.

What distinguishes where we are now from where we were three years ago is the regulatory environment. In 2024, EASA updated rules so that VR devices can fill the training role for certain training purposes. Regulators have moved beyond the watching stage, and are actively engaging.

The practical implication for operators is not that VR and mixed reality will replace qualified simulators - they will not - at least not for the training tasks that require Part 60 / CS-FSTD qualified devices. The more useful frame is that these technologies are becoming a structured and recognised part of the training ecosystem. Innovation here is additive, not disruptive, VR prepares pilots rather than substitutes for certified training, and data enhances instructor judgment rather than overriding it.

For smaller operators and training organisations that cannot justify a full flight simulator, lower-cost VR and mixed reality platforms are opening access to immersive procedural and systems training that was previously unavailable to them. That is a meaningful change.

Spatial Disorientation - A Safety Priority Getting Overdue Attention

Spatial disorientation has been a known contributor to fatal aviation accidents for as long as powered flight has existed. The vestibular system is simply not equipped to reliably distinguish motion from instrument-indicated motion in the absence of visual cues. Every pilot knows this intellectually. Far fewer have experienced it in a controlled training environment.

That is now changing, and the regulatory push behind the change is not insignificant.

In January 2026, the FAA issued new guidance recommending comprehensive spatial disorientation training for all pilots, following a National Transportation Safety Board directive stemming from the 2020 helicopter accident in Calabasas, California, where SD was identified as a contributing factor.

The FAA's Spatial Disorientation Training Workgroup evaluated simulation technologies and training approaches, culminating in recommendations focused on prevention, recognition, and recovery from SD events. With approximately 80 percent of aviation accidents linked to human factors, the FAA is calling for enhanced SD awareness and structured training beyond what current regulatory requirements demand.

The simulation implication is direct. The FAA has specifically noted that simulation training, whether in full flight simulators or specialised spatial disorientation trainers, can allow instructors to demonstrate under controlled conditions how easily SD can occur and teach recovery techniques. This is training that cannot be replicated safely in an aircraft.

For rotary wing operators in particular, SD is a disproportionate risk. Helicopter operations in low visibility, night, and over-water environments create the exact conditions where vestibular illusions are most dangerous and most difficult to resolve without structured prior exposure.

The trend appears to be that SD training is moving from a recommended practice toward an expected standard. Operators who build structured SD exposure into their simulation programmes now are ahead of where regulatory requirements are heading, not behind where they currently sit.

Lower-Cost AATDs

One of the most significant practical shifts in the simulation landscape over the past several years hasn't been at the high end of the market. It's been at the low end.

The Advanced Aviation Training Device category, governed under FAA AC 61-136B rather than Part 60, has matured considerably. Modern AATDs offer realistic cockpit environments, capable avionics modelling, and meaningful training credit at a fraction of the cost of a high level FTD or FFS.

Under Part 61, an AATD can be used to log up to 20 hours toward an instrument rating, up to 50 hours toward a commercial pilot certificate, and up to 25 hours toward an ATP certificate. Most or all of an instrument proficiency check can also be conducted in an appropriately equipped AATD.

For general aviation flight schools, regional operators, and training organisations that cannot justify the capital and operating cost of a Part 60 / CS-FSTD qualified device, this represents genuine and growing capability. The question is not whether an AATD can contribute meaningfully to a training programme, it clearly can. The question is understanding precisely which training tasks it can and cannot be used for, and building that understanding into programme design from the outset.

The area of most active development is the integration of higher-fidelity visual systems and mixed reality technology into AATD platforms, which is closing the gap between what a lower-cost device looks and feels like and what a more expensive qualified device delivers. The fidelity argument against AATDs is becoming harder to sustain as the technology improves.

The regulatory credit argument, however, remains distinct. Better-looking visuals do not change what a device can be used for under the applicable framework. That distinction, understanding the difference between fidelity and approved training applications, continues to be the most important thing an operator needs to understand before committing to any device in this category.

Part Task Trainers are Underutilised

Part task trainers occupy a specific and under-appreciated role in the simulation ecosystem. Rather than attempting to replicate the full flight environment, they focus on a specific system, procedure, or task, allowing deep, repetitive, efficient practice of the things that most directly affect performance in the aircraft.

Cockpit familiarisation trainers. Flight management system trainers. Engine start procedure trainers. Hoist operator stations. Each addresses a specific learning need with purpose-built fidelity.

The training efficiency argument for part task trainers is well established. Deliberate, focused practice of specific tasks produces faster skill acquisition than the same time spent in a more complex environment where attention is distributed across the whole flight task. For initial type training, system familiarisation, and abnormal procedure rehearsal, a well-designed part task trainer often produces better outcomes for those specific tasks than the same hours in a high fidelity FTD or full flight simulator.

The industry trend toward pilots practising procedures and preparing for the simulator remotely, arriving at the training centre already familiar with system flows and cockpit layout, is being enabled largely by lower-cost, portable part task and procedural training devices and software suites. This shifts the role of the expensive, limited-availability full flight simulator toward what it does best, integrated crew performance, complex scenarios, and qualification events, rather than using that time for foundational familiarisation.

For rotary wing operators managing complex mission-specific systems, the part task trainer argument is especially compelling. A crew that has rehearsed hoist procedures, external load management, or NVG cockpit flows in a dedicated trainer before entering the full simulation environment uses that simulator time more effectively and reaches proficiency faster.

The growth in this segment is consistent with broader market trends. The global training simulators market grew from approximately 54 billion dollars in 2025 to nearly 62 billion dollars in 2026 and is projected to continue at a compound annual growth rate of nearly 15 percent through 2032, with part task trainers representing one of the fastest-growing hardware segments.

Evidence-Based Aviation Simulation Training

Running underneath all of these specific technology trends is a broader shift in training philosophy that is reshaping how the industry thinks about simulation.

Evidence-Based Training, or EBT, moves away from the traditional model of training to a fixed syllabus of prescribed tasks and toward a model that identifies where a pilot's actual performance data indicates training attention is most needed. Rather than assuming every pilot needs the same number of hours on the same tasks in the same sequence, EBT uses performance data to direct training effort toward real gaps.

This approach depends on two things that simulation provides particularly well: the ability to collect objective performance data during training, and the ability to run any scenario, at any time, as many times as needed. Aircraft training provides neither with the same reliability or efficiency.

The implications for how operators think about simulation investment are significant. A device that captures and reports meaningful performance data becomes an evidence collection system that makes the whole training programme more effective. That capability is increasingly available even in lower-cost platforms, and it changes the value proposition for simulation investment in ways that a pure fidelity argument does not fully capture.

ICAO, IATA, and IFALPA published an updated EBT implementation guide in 2024, and regulatory frameworks in a number of jurisdictions are moving toward mandating or recognising EBT-structured training programmes. This is a direction of travel, not a distant destination.

What This Means for Operators Today

The horizon that these trends describe is not distant. Much of it is already here, and the parts that are not yet fully arrived are close enough to shape decisions being made now.

For operators considering simulation investment, a few practical implications follow from this picture.

Technology choices made today have a longer service life than the technology cycle might suggest. A device acquired now will still be in service when regulatory requirements for SD training are more prescriptive, when EBT frameworks are more embedded, and when VR and mixed reality have more clearly defined regulatory credit pathways. Building in the flexibility to evolve with those changes is worth the consideration it takes.

The lower end of the market is increasingly capable. For operators who have assumed that meaningful simulation capability requires Level D expenditure, the current AATD and part task trainer landscape is worth a fresh look. The gap between what these devices cost and what they deliver has closed considerably.

And independent advice, sought before the market rather than during it, continues to be the most reliable way to navigate an environment that is changing faster than any single vendor's product roadmap can reflect.