How to Design Air-Medical Simulations Across the Care Continuum

How do you give nursing students real practice in air-medical care when most will never see a flight during clinical rotations? Transport patients are few, their deterioration is fast, and a helicopter cabin holds only a handful of people, so no program can promise placement slots for every learner. Simulation is the only dependable way to guarantee the experience.

In September 2026, the University of Nevada, Reno's Orvis School of Nursing and REMSA Health Care Flight showed one version of this, running a home-to-hospital exercise with flight nurses, critical care paramedics, and a landed aircraft.

The harder constraint is not the helicopter. It is crew availability, faculty time, and the handoffs between roles.

What the Evidence Says About Helicopter and Air-Medical Simulation

The instructional case for helicopter simulation rests on a mismatch: air-medical emergencies are rare, time-compressed, and unfold in confined aircraft spaces, so clinical rotations rarely give learners dependable exposure. Simulation becomes the deliberate practice environment for those high-stakes, low-frequency events.

What the research can and cannot tell you

The direct helicopter-specific literature is small. In one 2020 study of 24 medical residents, a half-day helicopter transport simulation improved perceived knowledge by 25 points and awareness of air-transport obstacles by 28 points. Stress rose from 32 to 47 during the exercise and dropped to 31 afterward, a pattern that suggests the scenario was demanding but not unmanageable.² However, these outcomes were self-reported perceptions, not observed clinical behavior or patient results.

A 2020 nurse leader perspective from Case Western Reserve University reports that 74 percent of novice air-medical crewmembers rated full-scale helicopter training replicating flight phases "extremely advantageous." Preliminary flight-simulation data at the Frances Payne Bolton school suggested improved competency for new and experienced crew, shorter orientation, fewer accidents and near misses, and better quality and safety. The available report does not include sample size, statistical significance, or a controlled comparison.

Newer signals in adjacent training

A 2025 basic HEMS course found significant improvement on all measured technical and nontechnical items, with the largest stated gains in managing a patient during aircraft malfunction (1.49 points) and using a fire extinguisher (1.11 points). Post-course scores were high across crew resource management and emergency-landing responses.³ The evidence does not yet establish nurse-specific durability or transfer to live operations. Virtual reality air-to-ground handoff work with emergency room nurses⁴ and a 2025 ECMO transport curriculum⁵ show the field moving toward broader team composition, but published outcome detail remains thin.

What this means for nurse educators

For MSN Nurse Educator competencies, the pattern is clear: design learning experiences that isolate the rare skill, evaluate outcomes beyond satisfaction, and collaborate with practice partners to test whether the simulation changes teamwork or handoff performance. The takeaway is to measure what your own program can defend: pre-post confidence, standardized handoff accuracy, and observed team behaviors. That is how local evidence becomes stronger than the current thin published base.

Case Study: Nevada's Home-to-Hospital Care Flight Simulation

Two sessions, on Sept. 22 and Sept. 29, 2026, carried one patient from a living room to a hospital bed. The University of Nevada, Reno's Orvis School of Nursing hosted the exercise in partnership with REMSA Health Care Flight, as described in a Nevada Today report by Kelly Hanlon published Sept. 30, 2026. The format was high-fidelity, aimed at clinical skills, teamwork, and communication.

Who Was in the Room

The cast mixed working professionals with learners. Certified flight nurses, critical care paramedics, a pilot, and nursing faculty took part alongside undergraduate and graduate nursing students. Care Flight clinicians handled first response and transport. Undergraduate students took over bedside care once the patient reached the simulated hospital. APRN students joined by telehealth to work out a plan of care with the team.

The Scenario Arc

The case opened at the simulated patient's home, where the flight crew assessed and stabilized the patient. Transport by air followed, then arrival at a simulated hospital setting. A virtual provider consultation came next, with the APRN students collaborating remotely. A Care Flight helicopter also landed at the University's Redfield Campus, and students explored the aircraft.

Haley McNeil, the school's director of simulation, wanted students to experience the full continuum of care rather than a single slice of it. Molly Kokenge, associate dean for Strategic Partnerships and Practice, led development of the interprofessional simulation.

Three Design Lessons for Your Program

• Span the whole continuum: The case followed the patient across settings, not one unit's workflow. Learners saw how decisions at home shaped what happened in flight and at the bedside.
• Mix learner levels in one scenario: Undergraduates and APRN students held different responsibilities within the same patient story. Each level practiced its own role while seeing how the others depended on it.
• Use the real aircraft as a capstone: The helicopter landing gave students a look at the actual environment. The learning itself, though, came from the staged phases and the role transitions, so the aircraft completed the exercise rather than carrying it.

The public account does not name the individual flight clinicians, paramedics, pilot, or other faculty. It also does not describe the debriefing or assessment methods, so those pieces are yours to design. The structure, though, transfers well to programs with an EMS or air-medical partner nearby.

Designing the Scenario: Objectives, Phases, and Patient Cases

Start With Three or Four Measurable Objectives

Resist the urge to teach everything a flight crew knows. Write three or four objectives that name an observable behavior, the condition, and the standard. For prelicensure learners: "Given a hypotensive patient at a scene, the student will identify two signs of shock and initiate fluid resuscitation within five minutes." For APRN learners joining by telehealth: "The student will obtain a focused history from the transport crew and articulate a differential and plan of care before the aircraft lands." Keep the verbs assessable. If you cannot imagine checking it on a rubric, rewrite it.

Build a one-page scenario brief and treat it as the single source of truth: patient story and baseline vital signs, objectives, role assignments, equipment list, cue script (what the facilitator says or does at each trigger), expected learner actions, and stopping points. Everyone running the day, including your EMS and flight partners, gets that one page. Longer documents do not get read in a hangar.

Map the Five Transport Phases

Structure the scenario as a sequence so learners feel the continuum rather than a single bedside snapshot:

• Dispatch and scene or home: limited information, environmental hazards, family present, first impressions and triage decisions.
• Patient contact and stabilization: airway, access, monitoring, initial interventions under time pressure.
• Loading and flight: confined space, noise, restricted movement, equipment constraints, limited reassessment options.
• Hospital handoff: structured report to the receiving team, transfer of monitoring and lines, closed-loop questions.
• Inpatient or telehealth follow-up: ongoing plan of care, provider consultation, documentation.

Write Deterioration Triggers With Defined Cues

Each phase should carry at most one planned change in patient condition, and each needs three things written down: the cue (monitor change, manikin sound, confederate line), the expected learner response, and what the facilitator does if the response does not come. Common choices are airway compromise during loading, hemodynamic instability in flight, or a pump occlusion or depleted oxygen supply that forces improvisation.

Match the Case to the Learner

Chest pain with an evolving STEMI and uncomplicated sepsis work well for novices: recognizable patterns, clear protocols. Multisystem trauma, postpartum hemorrhage, and pediatric respiratory failure belong with senior or graduate learners because they demand weight-based dosing, rapid reprioritization, and comfort with ambiguity.

Three design errors sink these exercises: stacking too many triggers until learners freeze, leaving role boundaries undefined between students and clinical partners, and failing to schedule a pause for facilitation when the scenario drifts. Build the pause in on purpose.

The Five Phases of an Air-Medical Scenario at a Glance

Use this general design model as a starting map for any home-to-hospital transport scenario, then adapt it to your partners, learners, and lab space. It is a planning framework, not the exact structure of any one school's exercise.

Sequencing Undergraduate, Graduate, and APRN Learners in One Exercise

Mixed-level simulation is shifting from an occasional experiment to a deliberate design choice, as programs look for ways to put every learner level on the same patient at once. The predictable risk is that senior students take over while everyone else watches. Prevent that by assigning each learner a defined job in every phase before the scenario starts.

Delineate Roles Phase by Phase

Map who is the primary clinician, who receives the handoff, who observes with a structured checklist, and who consults. A sample split:

• Home scene: Undergraduates lead the primary assessment and prioritize interventions. Graduate students observe and track communication.
• Flight: Undergraduates continue care alongside the flight crew. One learner prepares the handoff report.
• Hospital arrival: Graduate students receive the handoff and coordinate admission and resources.
• Virtual consult: APRN students set the plan of care.

Level the Objectives

Write separate objectives for each group against the same patient. Undergraduates focus on assessment, prioritization, and clear communication. Graduate students focus on systems thinking and care coordination across settings. APRN students are evaluated on plan-of-care decisions and how well they synthesize the report they hear.

At the University of Nevada, Reno's Orvis School of Nursing, APRN students joined the Care Flight scenario via telehealth to collaborate on the plan of care. If you adopt that model, rehearse the technology separately: test the video link, room audio, camera angles on the manikin, and a backup phone line. A frozen feed mid-consult derails the clinical reasoning you want to assess.

Use Experts as Role Models, Not Performers

Flight nurses, critical care paramedics, and a pilot bring credibility, but brief them to coach rather than perform. Give each a scripted role: the pilot enforces aircraft safety and timing, while paramedics and flight nurses model closed-loop communication and intervene only for safety or a planned cue. Save their deeper expertise for debriefing.

Rotate Roles Across Sessions

Nevada ran its simulation on two dates, which is a useful pattern. Repeated sessions let you rotate learners so the observer in one round leads in the next. Track assignments on a roster so no student only watches.

Building Handoff Practice Across Role Transitions

Map the handoff sequence before students enter the room

In an air-medical scenario, the patient changes hands at least four times: prehospital to flight crew, flight crew to ED, ED to inpatient unit, and bedside to a telehealth APRN provider. Assign each transition to named roles and post the sequence in the prebrief so learners can see when they are expected to speak. Mark the receiving role's cue, such as the flight nurse calling report to the ED charge nurse, so no learner waits passively for an invitation.

Choose one structured tool and teach it in class beforehand

Pick either I-PASS or SBAR and use it consistently across all handoffs. I-PASS prompts Illness severity, Patient summary, Action list, Situation awareness and contingency planning, and Synthesis by the receiver.¹ SBAR prompts Situation, Background, Assessment, and Recommendation. A related iSoBAR format adds Identify and a read-back step that fits transport. Introduce the chosen tool in a classroom worksheet or low-stakes role play before simulation day. Neither is universally validated for nursing prehospital-to-ED transport, but 2025 evidence reviews rated I-PASS moderate certainty for reducing medical error and SBAR low certainty for patient-safety outcomes; both probably improve within-unit safety.² A 2026 emergency department review found no single universal tool, with SBAR, iSoBAR, I-PASS, and IDEAS most adopted.¹ The lesson for educators: do not expect one tool to fit every setting, but choose one and require learners to use it.

Build an observer checklist that goes beyond content

A simple rubric should mark the following: - Completeness: every required element of the chosen tool is present and in sequence. - Closed-loop communication: sender states an action, receiver confirms, sender verifies. - Interruptions: count them and note whether the speaker regained the handoff. - Receiver read-back: the receiving clinician synthesizes key actions and contingencies aloud before accepting care.

Assign one observer to the sender and one to the receiver, then compare scores during debrief and discuss the gaps each side saw.

Make the handoff feel like transport, not a classroom conversation

Add rotor noise, radio static, timed pauses, or a missing medication list. A 30-second countdown for helicopter departure can create time pressure without elaborate equipment. Incomplete information is realistic; students should name what is unknown and ask for it rather than silently filling gaps. Because the tool was taught earlier, the simulation tests transfer under stress, not first exposure.

Aligning With INACSL Standards: Design, Prebrief, and Evaluation

A high-stakes air-medical scenario earns its place in a nursing curriculum only when it is deliberately aligned with the current INACSL Healthcare Simulation Standards of Best Practice. The 10 standards provide a common structure for design, prebriefing, facilitation, debriefing, and evaluation.¹ For transport simulations, five standards do the heaviest lifting: Simulation Design; Prebriefing: Preparation and Briefing; Facilitation; The Debriefing Process; and Evaluation of Learning and Performance. The 2025 revisions to Prebriefing and The Debriefing Process reinforce the need for psychological safety and structured reflection after every run.¹

Prebriefing for a High-Stakes Transport Scenario

A strong prebrief goes beyond a quick introduction. It includes preparation before the event and on the simulation day, with clear expectations, logistics, and roles. For a helicopter or air-medical scenario, orient learners to the aircraft or mock-up, including entry and exit points, communication equipment, and any simulation controls. Name each role explicitly: flight nurse, critical care paramedic, pilot, undergraduate nursing student, graduate nurse, and APRN telehealth participant. Establish a fiction contract by acknowledging that some elements are simulated, and invite learners to engage as if the environment were real while flagging safety concerns. State the confidentiality agreement and reaffirm psychological safety, so learners can make mistakes without fear of humiliation.

Design, Fidelity, and Pilot Testing

Simulation Design requires that the scenario be purposefully built to meet objectives and optimize outcomes. Start with the measurable behaviors you want to see, such as a clean handoff during transport or a prioritized plan of care during a telehealth consult. Then match fidelity to those objectives. If the objective is communication and clinical reasoning, a modest mock-up or in-situ space may be enough. If the objective includes spatial navigation or equipment handling inside an actual aircraft, use the helicopter or a high-fidelity replica. The standard also directs educators to pilot test the full scenario before learners arrive, checking timing, cue delivery, and equipment function.

CHSE and a Quick Alignment Checklist

Programs that want to benchmark their simulation educators may look to the CHSE credential, which signals advanced knowledge of simulation pedagogy. Certification has its own eligibility and exam requirements, and it does not replace program-level alignment to INACSL standards. Before running a transport scenario, educators can use this checklist:

• Outcomes first: Write objectives that name observable communication, clinical judgment, or transport-specific behaviors.
• Fidelity match: Confirm each aircraft element, monitor, or telehealth connection directly supports an objective.
• Prebrief plan: Script orientation, role assignments, fiction contract, and psychological safety.
• Facilitator readiness: Assign a facilitator trained in simulation pedagogy who can adapt cues within the scenario.
• Debrief design: Choose an evidence-based debriefing model and protect time immediately after each run.
• Pilot test: Run the full scenario with faculty or simulation staff to catch timing, equipment, and cue problems.
• Evaluation tool: Select an aligned tool before learners start, and decide whether it will be formative, summative, or high-stakes.²

Related Articles

Choosing a Debriefing Model and Assessment Tools for Transport Simulations

No single debriefing model or rubric has been shown to work best for air-medical transport scenarios, so treat the options below as a toolkit rather than a ranking. For time-pressured flight scenarios, start with PEARLS, because its blend of self-assessment, facilitated discussion, and directive teaching lets you scale the debrief to the time you have. Use Debriefing with Good Judgment's advocacy-inquiry during the analysis phase, score clinical judgment with the Lasater rubric and teamwork with a crew resource management behavior checklist, and rate your own facilitators with the DASH.

Equipment, Safety, and Cost: From Low-Fidelity to Full-Scale

Match fidelity to your objectives: handoff, packaging, and communication goals rarely need more than a taped-out cabin, while full-scale devices make sense mainly for flight-crew or EMS mission training. The only published price below is a vendor's own range. The other cost cells are rough estimates or note that no figure is published, so get quotes before you budget. Whatever the tier, measure noise (federal guidance flags 85 dBA averaged over 8 hours as the point to act, and trouble talking at arm's length as a practical warning sign), check whether an enclosed mock cabin counts as a confined space, and let the flight crew run ground safety whenever an aircraft lands on campus.

Building Academic–EMS Partnerships and Preparing Faculty

An air-medical partner brings realism no mannequin can match, but every hour of crew time and every campus landing shifts some control and risk away from your simulation program. Keep the realism and the safety by putting the terms in writing before anyone drafts a scenario.

What the Agreement Should Cover

No single model agreement exists for academic and air-medical partnerships. Build your memorandum of understanding around the decisions most likely to cause friction:

• Roles: who writes objectives, who facilitates, who debriefs, and who speaks for the flight program.
• Liability and insurance: requirements vary by operator. Vanderbilt LifeFlight's helipad procedure sets its own aircraft-liability limit, but that is one program's policy, not a legal minimum. Route coverage questions through your institution's risk office.
• Scheduling and cancellation: who can call off a session, and with how much notice.
• Data and video: whether debrief recordings can be kept, shared, or used for research.
• Safety authority: the pilot and flight program control the aircraft, the landing zone, and every decision to land, display, or depart. State that plainly.

University of Arizona's EMS guidelines show how detailed landing documentation can get: landing-path coordinates, arrival and departure routes, a pad diagram, radio frequencies, and telephone contacts.

Logistics Your Program Absorbs

Flight crews are on duty, and a real call outranks your scenario. Plan a backup facilitator for every crew role. Nevada's Orvis School of Nursing ran its care flight simulation on two dates, Sept. 22 and Sept. 29, which spreads learners out and builds in a fallback if a crew gets pulled.

For any landing, the operator evaluates the site for size, surface, terrain, hazards, and rotor wash, as FAA guidance on helicopter air-ambulance operations describes. Texas trauma-facility guidance adds rules worth borrowing: a dedicated landing-zone safety officer, a perimeter clear of pedestrians, animals, and vehicles, eye and hearing protection, and no photography during landing or departure. Treat a static aircraft display and anything involving turning rotors as separate events with separate approvals.

Preparing Faculty

Facilitators need simulation training, plus time with the crew. Co-author scenarios with flight nurses and paramedics so cues, equipment, and handoff language match real practice. Leave landing-zone safety content to trained air-medical experts, as the National EMS Education Standards specify. Rehearse the interprofessional debrief as well: decide in advance who leads and how crew and faculty feedback fit together.

Start Small

Begin with a single phase, such as a transport-to-emergency-department handoff, paired with a crew visit or static aircraft tour. Once the paperwork, partnership, and debrief rhythm hold up, extend toward the full home-to-hospital continuum.