Virtual reality (VR) training places students inside a simulated 3D environment where they practise real tasks without real-world risk. For RTOs, it means learners can rehearse hazardous or expensive procedures — such as welding, patient care, and machine maintenance — as many times as they need. Research from PwC found VR learners complete training four times faster than classroom learners and feel 275% more confident applying their new skills afterwards.
Most trainers already know that students don’t learn the same way. Some need to see a process, some need to do it, and some need to feel it. VR now serves all three at once, and it’s no longer a novelty.
The global market for VR in education is projected to grow from USD 31.28 billion in 2025 to USD 37.66 billion in 2026, and on to USD 95.28 billion by 2031. Hardware is also catching up: global XR device shipments grew 44.4% in 2025, with a further 33.5% growth forecast for 2026. For Registered Training Organisations delivering practical, competency-based courses, that growth curve translates into cheaper headsets, better content libraries, and stronger evidence that VR works.
This guide covers what VR is, how it works, which type suits your RTO, what it costs, and how to roll it out without breaching ASQA’s Standards for RTOs.
Virtual reality (VR) is a computer-generated environment that a learner experiences through a headset, using sight, sound, and sometimes touch. The learner feels present inside the simulation rather than watching it on a screen. In a training context, VR recreates a workplace, a piece of equipment, or a client scenario so a student can practise safely before facing the real thing.
VR headsets track head, eye, and body movement using built-in sensors and cameras. The software uses that data to update the 3D scene in real time, so the environment moves exactly as the learner’s head does.
To create depth, each eye receives a slightly different image. This relies on stereopsis — the brain’s natural ability to judge distance by comparing two images from two eyes. Add haptic feedback (vibration or resistance you can feel) and spatial audio (sound that shifts as you turn your head), and the brain accepts the simulation as a real space.
In short: VR doesn’t project an image in front of you. It convinces your nervous system that you have moved somewhere else.
Computer scientist Jaron Lanier coined the term “virtual reality” in the 1980s. He co-founded VPL Research, the company behind some of the earliest commercial VR headsets and data gloves.
Forty years on, VR has moved well beyond gaming. It now supports clinical training, industrial maintenance, defence simulation, and vocational education across Australia and internationally. The Innovative Manufacturing CRC (IMCRC) and university research labs have driven much of that shift locally, funding partnerships that turned VR from a lab experiment into a deployable training tool.
RTOs typically choose between three levels of immersion. Each suits a different budget, skill, and risk profile.
This is VR viewed on a screen — a desktop, tablet, or phone — rather than through a headset. The learner controls the simulation but stays visually anchored to the real room. It suits orientation modules, procedural walkthroughs, and low-cost pilot programs.
Semi-immersive VR uses a headset or large display with richer graphics and audio, but the learner can still glance at the real world around them. Trainers often prefer it because they can observe and coach in real time. Flight simulators and many medical-training setups use this format.
Fully immersive VR uses a headset that blocks out the physical room entirely, replacing it with a 360-degree simulated environment. The learner looks around, walks, and interacts just as they would on site. This format delivers the strongest sense of presence and the biggest gains in engagement, but it also carries the highest hardware and content development costs.
| Type | Best for | Typical cost |
|---|---|---|
| Non-immersive | Orientation, theory, procedure walkthroughs | Low |
| Semi-immersive | Coached practical skills, flight and medical simulation | Medium |
| Fully immersive | High-risk, high-cost, or hands-on trade skills | High |
Match the format to the risk and cost of the real-world task, not to the newest headset on the market. If a mistake in the physical version of the task is expensive or dangerous — think confined-space entry, patient handling, or heavy machinery — fully immersive VR earns its higher price tag through avoided incidents and equipment damage.
If you’re testing VR for the first time, start with non-immersive or semi-immersive modules. Prove the learning outcome first, then scale up to full immersion once your trainers and students are comfortable with the format.
Deakin University and HYDAC Australia built a multi-user VR hydraulics training environment through Deakin’s Motion Lab, supported by the IMCRC. It lets up to 20 participants train together on a full-scale hydraulic system model, even when they’re working from different cities. HYDAC’s own team notes the platform gives trainees a spatial sense and direct interaction with the equipment, complete with real-time instruction, feedback, and skill verification.
Murdoch University’s School of Nursing combines VR, avatar-based scenarios, and high-fidelity mannequin simulation to prepare nursing students for clinical placement. Murdoch describes this blended approach as unique among Western Australian universities, and staff use it to build students’ confidence before they face real patients.
Peer-reviewed research on VR wound-care training backs up what these institutions are seeing in practice: one interprofessional study of 116 medicine, nursing, and pharmacy students found procedural knowledge increased significantly after two short VR sessions.
Upfront costs cover headsets, authoring software, and scenario development, and they can run into tens of thousands of dollars for a bespoke fully immersive module. That’s the real barrier for many RTOs.
The economics change at scale, though. PwC’s research shows VR training becomes cheaper than classroom delivery once you’re training 375 or more learners, and at 3,000 learners the gap widens further. If your RTO delivers the same practical unit to hundreds of students a year — a common pattern in trades, health, and community services — the cost curve favours VR.
Off-the-shelf VR content libraries and no-code authoring tools have also brought entry costs down since 2023, so a small RTO no longer needs an in-house development team to pilot a module.
The Australian Skills Quality Authority (ASQA) regulates RTOs against the Standards for RTOs. VR doesn’t change what you must prove — it changes how you can prove it.
Keep three things in mind. First, your VR scenario must map directly to the performance criteria in the relevant unit of competency, not just cover the topic loosely. Second, keep an audit trail: session logs, completion data, and trainer observation notes all count as assessment evidence. Third, VR simulation typically supplements, rather than fully replaces, workplace-based assessment for units that require demonstrated performance in a real operating environment — check your training package’s assessment conditions before you rely on VR alone.
Virtual Reality training helps RTOs teach practical skills faster, more safely, and more consistently than classroom-only delivery, and the evidence for that is now well established. Start small with a semi-immersive pilot in your highest-volume unit, track your cost-per-learner as enrolments grow, and keep your assessment evidence mapped to ASQA’s Standards for RTOs from day one.
Virtual Reality training places students inside a simulated environment to practise real competencies — from wound care to hydraulics maintenance — without the risk or cost of the real setting.
It gives students hands-on, repeatable practice in a controlled space, which builds confidence and skill faster than watching a demonstration or reading a manual.
No. It delivers the biggest gains in courses with a strong practical or hands-on component, such as health, trades, aviation, hospitality, and construction. Purely theoretical units see less benefit.
Expect meaningful upfront investment in headsets, software, and content development. According to PwC, the cost per learner falls below classroom training once you reach roughly 375 learners.
VR is active and experiential; classroom training is largely passive. PwC’s research found VR learners trained four times faster and felt substantially more confident applying their skills afterwards.
Most education deployments use standalone headsets, which need no separate PC or console, plus authoring or licensed content software and an LMS that can log completion data.
Yes. Most modern VR training platforms can push completion records and assessment data into a connected LMS, keeping student evidence centralised.
Learners use the headset and hand controllers to move, pick up virtual tools, and respond to scenario prompts, mirroring the physical steps of the real task.
It can be, with adjustable controls, alternative interaction modes, and a non-immersive fallback for students who experience motion discomfort in a headset.
Upfront cost is the most common barrier. RTOs typically solve it by piloting one high-enrolment unit first, so the cost-per-learner drops quickly as the pilot scales.
Disclaimer:
The information presented on the VET Resources blog is for general guidance only. While we strive for accuracy, we cannot guarantee the completeness or timeliness of the information. VET Resources is not responsible for any errors or omissions, or for the results obtained from the use of this information. Always consult a professional for advice tailored to your circumstances.
Ben Thakkar is a Compliance, Training, and Business specialist in the education industry. He has held senior management roles, including General Manager, with leading Registered Training Organisations (RTOs) and Universities. With over 15 years of experience, Ben brings extensive expertise across audits, funding contracts, VET Student Loans, CRICOS, and the Standards for RTOs 2025.
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