Watch first (IMSH 2026): Mike Boutin (Innov2Learn) interviewed by Jake Rahman (Simulation Collective), in collaboration with SimZine, answering: “Where do you see simulation heading in 2026, without mentioning AI?”
Watch the short IMSH 2026 interview
The noise is real. The constraints are realer.
High-fidelity manikins. SP-focused ecosystems. Immersive rooms. AR, VR, MR. AI-everything. If you are
responsible for readiness, outcomes, and budgets, the real question is not “what is the coolest tech?”
It is this:
What training can we run more often, in more places, with fewer dependencies, while staying credible and standards-aligned?
Across military, EMS, and hospital environments, the direction is getting clearer: portable, deployable, low-friction simulation that moves with the learners, not the other way around.
This is not a niche preference. Healthcare simulation is growing fast, and multiple market analyses forecast multi-billion market sizes with strong growth rates over the coming years, which is one reason
the solution landscape feels louder every year. (1) (2)
So here is a filter that cuts through the buzz: portability.
Why portability is winning in military and EMS
1) Training has to work in austere and mobile contexts
Military medical teams routinely train for environments where space is limited, time is compressed, and infrastructure is inconsistent. In that reality, anything that requires a delicate room setup, extensive cabling, or a long list of dependencies becomes a liability. Portable systems shine here because they behave like gear, not like an installation. They can be transported, deployed, packed up, and redeployed without turning every session into a logistics exercise.
2) Connectivity is not guaranteed, and sometimes it is a risk
Field and tactical environments can be contested, crowded, or simply not designed for reliable network deployment. Even outside combat contexts, units train under emissions discipline concepts, and modern doctrine emphasizes operating under a contested electromagnetic spectrum.
The point is not “Wi-Fi is prohibited everywhere.” The point is simpler and more useful for equipment decisions:
If your training tool requires reliable site connectivity to function, you have created a fragile point of failure. (3)
Portable solutions that reduce reliance on local networks and IT involvement align better with readiness training in the real world.
3) Combat casualty care training rewards modality flexibility
No single modality dominates. That is not opinion, it is increasingly quantified.
A Military Medicine study comparing multiple simulation modalities for combat casualty care, from the perspective of experienced combat medics, found that different modalities carry different strengths and limitations, and none “wins” across all attributes. (4)
That is exactly why portability matters: it lets you mix modalities without being trapped by a single room, a single system, or a single setup constraint.
Hospitals are also moving: less space, more training demand, more rotation
Hospitals are not “the field,” but they increasingly behave like it in operational terms.
Space is constrained, rooms are temporary, priorities shift fast
Even strong programs fight for space. Classrooms become surge capacity. Meeting rooms become overflow. Training happens where it can fit this month, not where it was designed to fit.
Portability becomes the bridge between intention and reality: the ability to run credible simulation in borrowed rooms, temporary spaces, or decentralized locations.
Continuous education is not optional
Patient safety and competency maintenance require repetition and team practice. Simulation has long been positioned as a way to practice clinical and teamwork skills in a safer environment, with a strong safety rationale discussed in clinical literature. (5)
The practical implication is straightforward:
If your setup friction is high, your frequency drops. When frequency drops, your outcomes and ROI suffer.
The investment signal is loud
Hospitals, universities, and health systems continue to invest real money into simulation facilities and upgrades, including multi-million dollar initiatives. Examples include a $62 million New York State investment to establish SUNY nursing simulation centers (with campus matching) (6), a $34 million University at Buffalo nursing simulation center initiative (7), and a $2.7 million upgrade to a hospital simulation training facility in San Antonio. (8)
Fixed simulation centers are not going away. But portability is how you extend them, scale them, and keep training consistent when the building schedule does not cooperate.
Portability unlocks training formats fixed labs struggle to support
Mobile training teams that go to the learner
Mobile simulation programs are increasingly discussed as practical and scalable approaches, especially for crisis and emergency readiness. HealthySimulation has published practical guidance to scale mobile medical simulation training for crisis emergencies, emphasizing modularity and train-the-trainer models. (9)
That aligns perfectly with military and EMS realities, and it is increasingly relevant in hospital systems with multiple sites.
Mass casualty and multi-location scenarios
Large-scale scenarios do not always belong inside a single lab. MCI training often requires:
- outdoor staging and triage zones
- ambulance bays, vehicles, or mobile posts
- temporary treatment areas such as cafeterias or gyms
- multi-agency coordination spaces
There is ongoing research and publication on mass casualty triage simulation approaches, including low- cost, low-tech virtual MCI training concepts and prehospital MCI triage simulation training. (10) (11)
Portability is what allows realism to follow the scenario, rather than forcing the scenario to fit the room.
Recruitment and outreach that starts outside the sim center
Open-house events often happen in high-traffic spaces: cafeterias, gyms, lobbies. That is not a limitation. It is a strategic advantage if you use it well.
A portable serious-game style experience, such as an escape room or treasure map adventure, can spark curiosity first, then funnel visitors into the labs, where the real program story is told.
Escape room and open house pilot article
The key requirement is obvious: the setup must be light, fast, reliable, and transportable.
The “perfect portable system” checklist
If you are evaluating portable solutions for military, EMS, or hospitals, this is the dissection that predicts adoption.
1) It travels like equipment, not like a project
Look for systems designed around protective cases and clean packing logic:
- fast load-in and load-out
- reduced setup steps
- fewer fragile components
- easy inventory control, you can see what is missing quickly
If transport is painful, frequency drops. Frequency is the hidden ROI lever.
2) Battery autonomy is operational freedom
Long battery life reduces the hunt for outlets, cable clutter, and dependence on room infrastructure. In mobile and field contexts, battery autonomy is often the difference between “we can run this anywhere” and “we can run this only in the one room that works.”
3) It works with SPs and manikins
Portable solutions should be truly versatile:
- SP-first environments, where realism is driven by human interaction plus credible clinical signals
- manikin-first environments, where procedural practice and physiology matter
- hybrid scenarios, which are increasingly common in high-impact training
Compatibility across both is not a luxury. It is resilience against real-world resource constraints.
4) Minimal reliance on IT for deployment
The less you depend on dedicated networks, permissions, integrations, and room-based installs, the more often you will train.
This is where simple wireless control and offline-friendly operation become practical advantages. In unpredictable environments, reliability beats elegance.
5) Maintenance reality: repairability and modularity
Portable gear gets handled, transported, and used by many people. Favor solutions that are easy to reset, easy to clean, and serviceable without extended downtime.
Downtime is a cost that rarely shows up on the purchase order, but it shows up fast in readiness.
The strategic trade: slightly less “wow,” dramatically more reps
High-performing programs make a quiet trade:
A little less sophistication per session, in exchange for significantly more sessions.
That trade tends to win because competency is built through repetition, exposure, and debrief quality, not by hardware prestige alone. Simulation’s patient safety value is fundamentally tied to creating a safer environment to practice clinical and teamwork behaviors. (5)
Portability helps you multiply the occasions.
Conclusion: Start with the end goal, then design backward
Before buying anything, ask:
- What is the end goal: readiness, competency maintenance, credentialing, recruitment, retention?
- Where is the bottleneck limiting “more simulation, more often”: space, staffing, setup time, IT dependency, scheduling?
- What costs the most over 3 to 5 years: downtime, relocation, upgrades, staff time, maintenance?
- What happens when you expand, relocate, or run training in temporary rooms?
Then build your shortlist around one question:
Can this system follow my learners, wherever they train, and still deliver consistent, repeatable sessions?
CTA: Request the document at no cost
We are assembling a reference list of Portable Simulation-Friendly Solutions Worth Evaluating, across multiple providers and modalities, prioritizing what works for military and EMS, then hospital-based simulation, then academic programs.
References
1: MarketsandMarkets, Medical Simulation market size and forecast.
https://www.marketsandmarkets.com/Market-Reports/healthcare-medical-simulation-market-1156.html
2: Fortune Business Insights, Healthcare Simulation market size and forecast.
https://www.fortunebusinessinsights.com/healthcare-simulation-market-115280
3: U.S. Army, emissions control considerations for operating in a contested electromagnetic spectrum.
https://www.army.mil/article/284546/adapting_to_multi_domain_battlefield_developing_emissions_c
4: Military Medicine, comparison of simulation modalities for combat casualty care.
https://academic.oup.com/milmed/article/189/7-8/e1738/7469317
5: BMJ Quality and Safety, “Training and simulation for patient safety.”
https://qualitysafety.bmj.com/content/19/Suppl_2/i34
6: New York State, Governor announcement of $62M investment for SUNY nursing simulation centers.
https://www.governor.ny.gov/news/governor-hochul-announces-62-million-investment-establish-suny-nursing-simulation-centers
7: University at Buffalo, announcement of $34M nursing simulation center initiative.
https://www.buffalo.edu/news/releases/2025/05/ub-nursing-simulation-center-of-excellence.html
8: San Antonio Express-News, report on a $2.7M simulation facility upgrade.
https://www.expressnews.com/business/article/san-antonio-methodist-healthcare-nurses-training-21067694.php
9: HealthySimulation, guidance on scaling mobile medical simulation training for crisis emergencies.
https://www.healthysimulation.com/how-to-build-mobile-medical-simulation-training-crisis-emergency-situations/
10: Low-cost, low-tech virtual mass casualty training article (PMC).
https://pmc.ncbi.nlm.nih.gov/articles/PMC11486625/
11: Prehospital mass casualty incident triage simulation training (PMC).
https://pmc.ncbi.nlm.nih.gov/articles/PMC10955617/