VR motion sickness — often called cybersickness — is the nausea, dizziness or disorientation some people feel during a VR session, caused by a mismatch between what the eyes see and what the inner ear feels. It doesn't affect every trainee, and for the people it does affect, the biggest factors are usually fixable: how well the headset fits, how the scenario handles movement, and how the first session is paced. None of that requires giving up on VR training. It requires designing the rollout around them.
The instinct to blame gender or age turns out to be largely wrong. The fixes that actually work — a correctly adjusted headset, teleportation instead of continuous movement, and a short first session instead of a long one — cost nothing to implement and are backed by research, not guesswork.
What causes VR motion sickness
Cybersickness comes from sensory conflict: the eyes report movement (a scene scrolling past, a virtual body walking) while the inner ear's balance system reports that the body is standing still. The brain doesn't know which signal to trust, and the mismatch shows up as nausea, eye strain or disorientation. It's the same underlying mechanism as car or sea sickness, triggered by a visual scene instead of physical motion.
Is it really more common in women? The evidence says it's about fit, not gender
Cybersickness is often assumed to hit women harder, but a 2020 study of interpupillary distance (IPD, the distance between a person's pupils that a headset's lenses need to match) found that IPD mismatch, not gender, was the primary driver. Across two experiments where participants were exposed to a 20-minute virtual rollercoaster, women whose headset IPD could not be properly adjusted reported significantly worse symptoms that hadn't recovered even an hour later. Women who could get a correct IPD fit recovered in line with male participants (Frontiers in Robotics and AI, 2020).
The practical takeaway: check and adjust IPD for every trainee before a session starts, rather than leaving the headset on a factory default. It's a 30-second step that the research ties directly to who gets sick and who doesn't.
Are older employees more at risk? Age isn't the predictor people assume
A 2023 study followed 75 participants aged 21 to 86, split into three age groups, through a VR exposure protocol. It found no significant correlation between age and cybersickness scores. Symptoms did increase with repeated exposure within a single session (from an average symptom score of 20.65 early on to 30.02 later), but that increase was statistically independent of the participant's age (Sensors, 2023).
That matters for workforce planning: there's no evidence-based reason to assume a 55-year-old forklift operator is more likely to struggle with a VR headset than a 25-year-old one. Fit and pacing matter far more than the birth date on file.
The locomotion setting matters more than who's wearing the headset
How a scenario handles movement changes cybersickness risk more than any individual trait. A 2025 study had 15 participants navigate a virtual warehouse maze using three locomotion methods and rated discomfort on a 1 (none) to 5 (severe) scale:
| Locomotion method | Cybersickness rating (1–5) |
|---|---|
| Hand-tracking teleportation | 1.8 ± 0.9 |
| Controller-based movement | 2.3 ± 1.1 |
| Foot-based ("cybershoes") continuous movement | 2.9 ± 1.2 |
Foot-based movement produced significantly higher cybersickness than teleportation (p = 0.006), even though it felt the most natural to walk with. Teleportation kept discomfort lowest but slowed navigation down; controller-based movement landed in between on both counts (Scientific Reports, 2025).
Meta's own developer guidance for building VR experiences reaches the same conclusion from the design side: it recommends teleportation and snap turning over continuous smooth movement, avoiding sudden acceleration and rapid direction changes, and correctly fitting IPD as core comfort measures (Meta, 2026).
Does it wear off with practice?
For most people, yes. A 2025 study split participants into a repeated-exposure group, who did short VR sessions across four separate days, and a single-exposure control group who tried VR only once. By the fourth session, the repeated-exposure group reported significantly lower cybersickness than the control group's single attempt, a pattern the researchers term cybersickness abatement from repeated exposure (IEEE Transactions on Visualization and Computer Graphics, 2025).
In practice, that means a trainee's first VR session is close to their worst-case experience. A second and third short session, spaced a few days apart, is where most of the discomfort drops off.
A practical rollout checklist
| Do this | Why |
|---|---|
| Adjust IPD for every trainee before starting | The single biggest fixable driver of severe symptoms |
| Start with teleportation-based or stationary scenarios first | Lowest cybersickness ratings of the compared locomotion methods |
| Keep the first session short, then repeat within a week | Repeated short exposure lowers symptoms faster than one long session |
| Let trainees remove the headset any time, no questions asked | Symptoms are a physical response, not a sign someone is unsuited to VR |
| Don't assume risk by age or gender | Neither predicts cybersickness once fit and locomotion are controlled for |
Picking the right first scenario
Not every VR training scenario involves the same amount of movement, and that's worth using deliberately for a first session. A stationary, hands-on scenario like Fire Extinguisher Basic Training or Workplace Hazard Spotting asks a trainee to stand in one place and interact with what's in front of them, rather than navigate a large virtual space. That's a lower-friction way to introduce someone to a headset than a full evacuation walk-through, and it still delivers real training value: both scenarios are drawn from our catalog of BHP and fire-safety training.
Browse the full VR course catalog to see which scenarios fit a cautious first session for your team, and pair the rollout with the wider evidence on why immersive practice works, covered in why VR training is more effective than traditional training.
The short version
VR motion sickness is real, but it isn't random and it isn't a fixed trait of "people who can't do VR." A correctly fitted headset, a locomotion method that favors teleportation over continuous movement, and a short first session followed by a second one a few days later address most of what the research has identified as the actual drivers. Plan a pilot around those three levers, not around assumptions about who on the team will struggle, and read how to structure that first rollout in how to run a VR training pilot with one headset.
