Virtual Reality in Healthcare: Innovative Uses and Future Potential

The most promising application I have seen demonstrated in dermatology is VR distraction during painful laser procedures in children and in anxious adult patients. I watched it in use at a pediatric dermatology session. A child in the chair was getting port-wine-stain laser treatment, which normally requires sedation in that age group, and the headset plus an immersive underwater environment kept her still and calm through the full session without anxiolytics. That is a meaningful change. It reframes what the patient’s nervous system is doing during a stimulus that would otherwise require a drug or a parent-held arm.

For my field the use I think about most is anxiety and pain modulation during laser resurfacing, filler injections, and biopsies in patients who are needle-phobic or who dissociate in medical environments. Those patients currently have two options. I either premedicate them with an oral anxiolytic, or they avoid the procedure and live with the lesion. VR gives them a third option that does not sedate them and does not come with a driver-home requirement.

Where I am cautious is on claims that VR can replace informed consent conversations, or that it can help diagnose skin lesions. It cannot. The version of this technology that will actually stick in dermatology is narrow and procedure-specific. A headset handed to a 9-year-old with molluscum, or to a 35-year-old getting her first cosmetic laser, for the 12 minutes the procedure lasts. Narrow, repeatable, measured against real endpoints of pain score and completion rate. That is where I see it going.

As a clinical psychologist at MVS Psychology Group, with work spanning trauma, EMDR, ADHD, acute psychiatry, and Telehealth, I’m very interested in tools that change how people engage with treatment rather than just where treatment happens. One unique use I’ve seen discussed clinically is VR for trauma work through controlled exposure to cues that are hard to recreate safely in a normal consulting room.

In my field, the real potential is not novelty but precision. For some clients with PTSD, anxiety, or avoidance, VR could help us titrate exposure much more carefully, pause when needed, and build a stronger bridge between therapy sessions and real-world functioning.

I also see promise for ADHD and emotional regulation, especially where people struggle with attention, overwhelm, or executive functioning in everyday environments. A simulated classroom, workplace, or socially demanding setting could let us assess triggers and practise strategies in a way that is more lifelike than talking about it abstractly.

The big advantage, from my perspective, is combining immersive tools with solid clinical frameworks rather than treating VR as the therapy itself. In the same way we use evidence-based approaches like EMDR, CBT, DBT, or mindfulness through Telehealth and in person, VR has potential when it supports formulation, pacing, and personalised care.

The Technology: Clinical stress inoculation for high consequence professionals.

The most compelling use of virtual reality in healthcare goes far beyond basic mindfulness apps. We are seeing VR deployed for highly controlled stress inoculation and exposure therapy, specifically for high achieving professionals.

In traditional behavioral health, if a clinician is treating a commercial pilot recovering from acute panic or an executive dealing with severe situational anxiety, the treatment is largely limited to traditional talk therapy. We cannot safely recreate a turbulent flight emergency or a hostile board meeting in a standard therapy office.

VR completely removes that physical limitation. It allows clinicians to place a patient into a highly immersive, specifically targeted, stress inducing environment while they remain in a completely safe clinical space.

The true potential for this technology in the behavioral health field is pairing these immersive VR environments with real time biometric tracking. When we can monitor a patient’s continuous heart rate and respiration while they are actively navigating a simulated crisis, we no longer have to rely on their subjective memory of how they handle stress. We gain objective, immediate data on exactly when their nervous system begins to dysregulate. This allows us to train them on precise physiological regulation techniques in the exact moments they need them most, creating a highly targeted and measurable path back to peak performance.

One of the more interesting healthcare uses of virtual reality I’ve seen is in clinician training for supply chain and operating room readiness, not just patient therapy. Most people think of VR in healthcare as pain distraction or rehab, which is valuable, but I’ve seen real promise in using immersive simulations to train teams on what happens when a critical implant, device, or medication is missing at the wrong moment. In a hospital, that is not a simple inventory issue. It becomes a patient safety issue very quickly.

My background is in SAP supply chain architecture, and over the years I’ve worked across complex logistics environments where small process gaps create outsized consequences. In pharmaceutical and regulated settings, I’ve seen how difficult it can be to help business teams understand downstream impact from a screen full of ERP transactions. A VR environment can change that. Instead of showing someone a dashboard or a workflow diagram, you can place them in a simulated care setting where a delayed replenishment, incorrect master data, or failed handoff creates a visible chain reaction. People learn faster when they can feel the consequence, not just read about it.

That same idea has a lot of potential in my field, especially as ERP, AI, and digital operations start converging. I can see VR becoming a practical layer on top of enterprise systems for scenario planning, training, and exception management. Imagine a hospital supply chain leader walking through a virtual command center tied to live ERP signals, seeing where shortages may hit, which vendors are at risk, and how substitutions affect operations across departments. That is much more intuitive than asking teams to interpret disconnected reports.

I’m especially interested in where VR could intersect with AI-driven forecasting and explainability. A model may predict a disruption, but decision-makers still need confidence in why it matters. If you can visualize that risk in a realistic clinical workflow, adoption becomes easier. In my work on AI within ERP ecosystems, I’ve learned that technology only matters when people trust it enough to act on it. VR can help bridge that gap.

So for me, the real opportunity is not VR as a novelty. It’s VR as a decision-making and training tool that connects digital systems to human judgment in environments where timing, accuracy, and coordination genuinely affect lives.

One of the more interesting uses of VR I’ve seen in healthcare wasn’t about patient entertainment or basic exposure therapy—it was being used as a behavioral “reset” layer for chronic condition management. A team was using immersive VR environments to simulate future health outcomes based on current habits. For example, patients with metabolic conditions could “experience” the long-term impact of lifestyle decisions in a very visceral, first-person way. It’s not just education—it’s creating an emotional feedback loop that’s hard to achieve with charts or doctor conversations alone.

I don’t think VR will replace traditional care, but it can become a powerful layer for engagement and behavior change, which is one of the hardest problems in healthcare. Especially in weight management and metabolic health, where consistency matters more than short-term intervention, VR could help bridge the gap between clinical recommendations and actual day-to-day decisions.

One use I’ve seen that stuck with me was using virtual reality to guide patients through gait retraining and pressure awareness. It wasn’t in my own clinic, but I’ve followed trials where patients could “see” how their foot loads during movement in a more engaging way than traditional assessment. In my world, people often struggle to connect advice with what they feel in real time, especially with blister prevention where small changes matter. My view is that VR has real potential in education and behaviour change, not just diagnosis. If someone can experience correct movement or pressure patterns, they’re more likely to stick with it. The practical takeaway is to use VR where understanding and habit change are the goal, not just as a visual add-on, because that’s where it can actually improve outcomes.

One of the most impactful uses of virtual reality I’ve seen in healthcare is during procedures where anxiety and discomfort are common. By using VR headsets, patients can be immersed in calming environments—such as a beach or guided relaxation scenario—while undergoing treatments like wound care or minor procedures.

I’ve seen patients who were initially very anxious become noticeably calmer within minutes, which improves cooperation and makes the overall experience smoother for both the patient and the clinical team.

Looking ahead, VR has strong potential beyond distraction. It could play a larger role in patient education, rehabilitation, and chronic pain management by creating more engaging and interactive care experiences. As the technology becomes more accessible, it may also help reduce reliance on medications and improve patient comfort. Research from the National Institutes of Health shows that VR can significantly reduce pain perception and anxiety during medical care.

It was during a study training session when we struggled to explain a specific sample collection process to new site staff. It involved timing, positioning, and a few small steps that are easy to miss if you’re just reading a manual.

Instead of repeating the same explanations on calls, the sponsor shared a basic VR walkthrough. It was just a short, guided simulation of the exact process in a clinical setting. You could look around, follow the steps, and see how everything should be done in real time.

Honestly, it helped more than expected. A couple of coordinators who were unsure before got comfortable pretty quickly after going through it once or twice. It also cut down a lot of back-and-forth questions.

I think VR has real potential in making study training clearer and more consistent. So anything that helps teams understand processes properly from the start is useful. I don’t see it replacing regular training, but as a support tool, it makes things easier and more practical.

I’ve seen VR body doubling sessions help ADHD adults who struggle to start tasks. They log into a virtual workspace where other people are quietly working. It’s like the coffee shop effect, minus the actual distractions.

The potential here is real. VR can create controlled environments that cut down on sensory overload while keeping people engaged, both things ADHD brains need. You could practice executive function skills in simulated real-world scenarios without the stakes.

What gets me most is this: VR lets us build spaces that work with ADHD brains, not against them. Imagine workplaces and classrooms designed around neurodivergent needs from the start, instead of bolted on later. That’s what I’m pushing for.

One of the more compelling applications is VR being used for pre-surgical planning. Surgical teams are using VR environments to walk through complex procedures before entering the operating room, visualising anatomy in three dimensions, rehearsing steps, and anticipating complications in a risk-free setting. The impact on surgical precision and team coordination has been measurable.

What makes it more powerful now is the convergence with AI and real-time patient data. When VR environments are fed by AI-processed imaging and predictive diagnostics, they stop being simulations and start becoming intelligent planning tools. Surgeons are not just visualising anatomy. They are working with data-informed models that flag risk patterns and suggest optimal approaches before the first incision.

The direction is clear: VR alone is useful, but VR as a layer on top of AI and patient data is where the real clinical value sits.

The most striking use of VR in healthcare I’ve encountered is burn wound care. Patients at facilities like the University of Washington’s Harborview Burn Center use a VR program called SnowWorld, where they’re immersed in an icy landscape while undergoing wound debridement, one of the most painful procedures in medicine. The data shows pain reduction of 35 to 50 percent. Not from drugs. From pixels.

That tells you something fundamental about the relationship between perception and reality. And it’s the same principle that drives what we’re building at Magic Hour, just applied to a different problem.

In our world, the barrier isn’t physical pain. It’s creative paralysis. A small business owner staring at a blank screen, knowing they need video content to survive on social media, but lacking the budget, the tools, or the skills to make it happen. That gap between what someone can imagine and what they can produce is its own kind of suffering. It kills businesses slowly.

What VR proved in healthcare is that you can change outcomes by changing the interface between a person and a hard problem. That’s exactly what AI video tools do. Before Magic Hour, producing a single professional-quality video could take a full day and hundreds of dollars. Now someone with zero editing experience can do it in minutes. We’ve had millions of users prove that out.

The connective tissue between VR in healthcare and AI in creative work is the same. Both are about removing friction that gatekeeps access. A burn patient shouldn’t need to white-knuckle through agony when technology exists to ease it. A restaurant owner in rural Pennsylvania shouldn’t need to hire a video production team to compete on Instagram.

The technologies that matter most aren’t the flashiest ones. They’re the ones that take something previously reserved for people with resources and hand it to everyone else. That’s VR in a burn unit. That’s AI in a creator’s hands.