Teaching aviation maintenance is a balancing act. Students need hands-on time with real engines and airframes, but access to a King Air, an Embraer, or a turbine engine on a stand is limited — and expensive to scale. Even time-expired PT6 engine is $80,000.
One Part 147 aviation maintenance technician (AMT) school has found a practical way to stretch that access using VR headsets, and the model they've settled on is simple enough that any program could adopt it.
A typical AMT classroom might have 20, 40 or even 80 students enrolled which limits teaching support to presentations and videos. Unfortunately, watching a static PowerPoint or a textbook diagram doesn't build the intuition students need before they ever touch a real airplane.
Casting content from VR headsets, or breaking classes into lab sessions, and running applications that recreate systems like the PT6 engine fuel system, the King Air familiarization, or Embraer ERJ 143 — give instructors a middle ground: an interactive, three-dimensional experience that's available on demand, without waiting for hangar time.
What makes this program's approach worth sharing is that it doesn't try to force one setup to do everything. Instead, it splits usage into two distinct modes depending on the class size and goal.
In a lecture-style class of 20 or more students, there's no realistic way to rotate everyone through a headset individually in the time available. So instead, the instructor puts one student in the headset and casts that view to a large screen at the front of the room.
That one student becomes the "test pilot" for the group — working through the application, running the fuel lever, stepping through a checklist — while the rest of the class watches in real time on the big screen. Everyone gets to see the same 3D walkthrough of the engine or aircraft system, ask questions, and follow along, even though only one person is physically wearing the headset.
It's a low-cost way to bring an interactive tool into a room and break the routine of powerpoint systems diagrams. It also sets up students that want, or need, time to internalize the material and procedures to seek out lab time or VR office hours.
For dedicated lab sessions, the setup scales up slightly and a single teacher can work with 4-6 students in headsets. Tools such as ArborXR allow the teacher or teachers assistant to see what is in each headset and support questions. Some schools also set up open hours for a TA to work with students on demand.
Students rotate through experiencing the application hands-on, while others waiting their turn can watch on the apps casted on screens instead of standing around with nothing to do.
This setup works well for smaller, more hands-on sessions, like the entry-level shop practices classes where students learn to run an engine or tow an aircraft — skills that are notoriously difficult to teach safely and that benefit from a low-stakes VR run-through before students try them on real equipment. A student worker or TA typically staffs the lab, handling headset logins and walking students through getting started, so an instructor doesn't have to babysit the tech each session.
The two-tier approach solves two different problems:
Neither setup requires a large headset fleet. A program can run this model with as few as two or three headsets total, which keeps the barrier to entry low for schools that are still building out their budget for VR training tools — and gives programs a clear, low-risk way to add headsets incrementally as adoption grows.
This kind of blended approach — VR as a bridge between lecture and hands-on lab, rather than a replacement for either — reflects how a lot of career and technical education programs are starting to think about immersive tools. It's not about digitizing the whole curriculum; it's about giving students a safe, repeatable way to build familiarity with complex systems before the stakes (and the cost of a mistake) go up.
For programs weighing whether VR belongs in an AMT curriculum, the answer from schools already using it seems to be: start small, match the tool to the room, and let the format — one screen for the class, two for the lab — do the heavy lifting.