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American Heart Month 2026: Turn every site into a faster, more confident link in the chain of survival

American Heart Month 2026: Turn every site into a faster, more confident link in the chain of survival
Greg Wahlstrom, MBA, HCM

American Heart Month 2026

Turn every site, shift, and community interface into a faster, more confident link in the chain of survival.

Observance: February 1 through February 28, 2026 Author: Greg Wahlstrom, MBA, HCM Audience: Healthcare executives and operational leaders

Use February as an operating test

February is American Heart Month. For 2026, the American Heart Association’s message is “You Are the First Responder Until Help Arrives.” The message is intentionally immediate: a cardiac emergency often begins before a professional response team is at the patient’s side. Recognition, activation of emergency services, cardiopulmonary resuscitation, and access to an automated external defibrillator, or AED, can depend on the person who happens to be nearby.

For healthcare executives, the theme creates a broader test. Is every clinical site, administrative building, ambulatory center, retail location, community event, and partner setting ready for the interval before help arrives? Can a visitor locate an AED quickly? Does a staff member recognize collapse, call for help, begin chest compressions, and guide the next responder to the scene? Are equipment checks, emergency numbers, building access, elevator control, and handoff responsibilities reliable on nights and weekends? These questions turn a public message into an operating standard.

Emergency readiness is only one part of the cardiovascular pathway. The same system that prepares for sudden cardiac arrest also sees uncontrolled blood pressure, medication complexity, transportation difficulty, digital exclusion, missed rehabilitation, and delayed follow-up. A well-run observance connects those responsibilities. It does not imply that a CPR class prevents hypertension or that a remote monitor replaces emergency response. It asks leaders to manage the interfaces between prevention, recognition, treatment, and recovery.

Evidence supports action, but it also limits overstatement. A 2025 systematic review of 37 studies found that bystander CPR and AED use were associated with better outcomes after out-of-hospital cardiac arrest, while emphasizing training, early recognition, and rapid access.15 A 2026 Seoul study found that communities in the highest quartile of recent basic life support training had 56% higher adjusted odds of bystander CPR than those in the lowest quartile. AED coverage, however, was not associated with bystander AED use in that analysis.13 Devices and training matter, but neither is self-executing.

The executive goal is therefore not “do more awareness.” It is to define the cardiovascular path, identify where reliability breaks, assign ownership, test a small change, and carry the measure beyond February. A campaign can create permission to begin. Governance determines whether the work continues.

Evidence snapshot

Four signals for four different decisions

56% higher oddsBystander CPR in Seoul communities with the highest versus lowest recent BLS training quartileEcological observational association; AED coverage alone was not associated with AED use
9,167 casesAdults in a Singapore cohort evaluating smartphone-activated first respondersActivation was associated with more CPR, AED use, and favorable 30-day neurological survival; causality is not established
18 studiesControlled studies in a systematic review of acute-care simulation-based team trainingBenefits varied by context and intervention; overall certainty was low
13 trialsMore than 29,000 participants in a review of telemedicine and AI in primary careThe pooled clinical effect for telemedicine across ten trials was not statistically significant
Sources: Choi, 2026;13 Takahashi et al., 2025;14 Schram et al., 2026;5 and Albarqi, 2026.10 These are evidence cards, not a comparative chart. Populations, designs, denominators, and outcomes differ.

Manage one continuum from prevention through recovery

Cardiovascular work is often separated by department. Primary care owns blood pressure. Emergency preparedness owns drills. Facilities owns AED placement. Emergency medical services owns transport. Cardiology owns definitive treatment. Rehabilitation owns recovery. Pharmacy owns medication management. Community benefit owns outreach. Each statement may be administratively accurate and operationally dangerous. A patient or visitor experiences the handoffs, not the org chart.

A reliable continuum begins before an emergency. Screening identifies risk, but value appears only when an abnormal result becomes a confirmed diagnosis, an agreed plan, an obtainable medication, and a completed follow-up. Team-based chronic disease care can improve coordination when roles, communication, shared decisions, and patient interactions are structured. A 2026 review of 24 interprofessional primary-care studies identified clear role division, team meetings, patient education, knowledge sharing, and mutual respect as recurring features of effective chronic-disease work.6 Heterogeneous settings prevent a single universal design, but the interface principles are transferable.

When a cardiac emergency occurs, the pathway changes speed. Recognition must trigger a known sequence: activate emergency response, begin appropriate first aid, retrieve and apply the AED, clear access for responders, provide usable handoff information, and preserve event data for review. No one should have to invent the route during the event. Local policy, training, equipment, communication, and physical layout must agree.

Definitive care then creates new transitions. Patients may move from emergency care to catheterization, critical care, a medical floor, home, skilled care, or rehabilitation. The discharge record must make medication changes, warning signs, follow-up timing, activity guidance, transportation needs, and rehabilitation eligibility visible. A technically excellent procedure can still be followed by confusion, cost-related nonadherence, a missed appointment, or no rehabilitation referral.

Recovery is not the end of the path. It feeds prevention. Functional assessment, safe exercise, medication review, risk-factor management, mental health support, work and caregiver needs, and durable access all influence whether a person can sustain the plan. Scientific guidance on exercise in high-risk populations emphasizes assessment, individualization, monitoring, and escalation rather than generic instructions.1 The executive responsibility is to make those components available and connected.

Closed-loop cardiovascular pathway

Every transition needs an owner and a recovery route

PreventRisk detection, blood pressure control, medication access, and follow-up
RecognizeSymptoms, collapse, rhythm risk, and clear activation criteria
RespondCall, CPR, AED, site access, EMS interface, and event command
TreatDefinitive evaluation, stabilization, intervention, and safe transition
RecoverRehabilitation, medication safety, function, experience, and prevention renewal
This pathway is a management synthesis, not a causal model from one study. Local leaders should define acceptance, completion, escalation, and exception ownership at every transition.
Editorial illustration of a multidisciplinary team reviewing an AED and emergency response route in a bright healthcare setting
Original editorial illustration. Readiness becomes reliable when equipment, roles, physical access, communication, and handoff are reviewed together.

Design the first five minutes before they happen

The 2026 theme focuses attention on the interval before help arrives. In a health system, that interval can be shortened and improved by design. Start with the real site. Walk from likely public areas to the nearest AED. Test whether doors, elevators, corridors, construction barriers, badge access, and after-hours staffing change the route. Confirm that the device is visible, unlocked where policy permits, ready for use, and paired with clear activation instructions. Count usable minutes, not devices.

AED placement should reflect demand, accessibility, mobility, and backup coverage. A 2026 geographic information-system study in Korean neighborhoods with high concentrations of older adults identified service blind spots when researchers considered road networks, local demand, and slower walking speeds.7 The findings are local, but the planning lesson is broad. A wall-mounted device can be geographically close and functionally inaccessible.

Operations research can make tradeoffs explicit. A 2026 model examined drone and disposable-defibrillator allocation under budget and demand uncertainty, with a case application in Virginia Beach. The model emphasized timely coverage, backup resources, reliability, and fairness.8 It did not show a survival benefit. Leaders evaluating novel delivery models should separate modeled coverage from measured activation, delivery, use, clinical outcome, maintenance, airspace, weather, privacy, liability, and public acceptance.

Training is another necessary but incomplete control. A systematic review of 18 controlled acute-care team-training studies found that outcomes varied with intervention design, duration, baseline conditions, and setting. Overall certainty was low, and brief interventions showed fewer effects.5 Annual completion is therefore not enough. Organizations should test performance in the work environment, reinforce skills over time, observe team communication, and review actual events and near misses.

Community response programs also need durable relationships. A 2024 practice report from underserved communities in eastern North Carolina described using trusted organizations and learning institutions to expand CPR and AED outreach.16 The report is not a controlled effectiveness trial. It highlights a practical implementation principle: the community partner that already has trust, space, language capability, and regular contact may be more important than a one-time centralized event.

Smartphone activation can extend a response network when the local system is ready. In a retrospective Singapore cohort, responder activation was associated with substantially higher odds of bystander CPR and AED use and with better 30-day neurologically favorable survival.14 Residual confounding remains possible, and the results come from a mature urban program. A local pilot should measure alert acceptance, arrival before EMS, false alerts, volunteer safety, geographic reach, privacy, retention, and whether disadvantaged areas receive equivalent coverage.

Qualitative fishbone

Why early response becomes late response

RecognitionUncertainty, atypical presentation, hesitation, language, or no clear trigger
People and rolesNo named caller, delayed CPR, unclear leader, crowding, or bystander fear
AED accessPoor visibility, locked space, long route, maintenance gap, or no retrieval owner
Place and timeAfter-hours staffing, elevators, badge access, construction, parking, or remote campus
CommunicationWrong emergency number, incomplete location, weak dispatch link, or unusable handoff
Learning systemCompletion-only training, no drills, no event review, no corrective action, or inequitable coverage
Effect: avoidable delay before recognition, CPR, AED use, or definitive response
The branches are intentionally unranked. Validate local causes with drill timing, equipment audits, event reviews, staff and community feedback, and equity analysis before selecting countermeasures.

Close the prevention loop before risk becomes crisis

American Heart Month can unintentionally split into two campaigns: emergency response and lifestyle education. Executives can use a stronger frame. Prevention is a care-delivery system with defined handoffs. A blood-pressure reading, medication list, risk conversation, or home measurement becomes valuable only when the result is accurate, interpreted, communicated, acted on, and followed to completion.

Start with measurement reliability. Devices need validation, cuffs need to fit, staff need technique standards, and repeat measurements need a clear protocol. Home readings need a route into the record and a team responsible for reviewing them. An isolated value should not disappear in an inbox, and a digital feed should not create alert burden without decision rules. The program should define who is eligible, what constitutes an actionable pattern, who responds, how quickly, what happens when the patient cannot be reached, and how treatment change is confirmed.

Team structure matters because cardiovascular risk rarely arrives alone. The interprofessional primary-care review found clinical, humanistic, and economic outcomes across different studies, while emphasizing communication, clear roles, structured interactions, and shared decisions.6 Those findings do not prove that adding another role automatically improves control. They suggest that teamwork must be designed, not merely assembled.

Medication management deserves equal attention. Polypharmacy can reflect appropriate treatment of multiple conditions, but it can also increase interaction risk, confusion, burden, and conflict with patient goals. A 2026 scientific statement on cardiovascular deprescribing frames medication review as a structured clinical process rather than simple medication removal.2 Leaders should make indication, benefit horizon, duplication, adverse effects, affordability, adherence, and follow-up visible, especially at transitions of care.

Culturally responsive adherence support must be built with the intended population. The MI-CARE implementation report describes a pharmacist and community-health-worker intervention for African American and Latino/a adults in a federally qualified health center, designed across social and clinical levels and adapted during real-world operations.4 It is a protocol and implementation report, not an outcome report. The transferable lesson is about design discipline: involve communities, define proximal and distal measures, preserve intervention fidelity where it matters, and adapt operations transparently.

Person-centered care is not decoration around the clinical pathway. An umbrella review of 25 reviews found consistent support for communication, empathy, respect, shared decisions, continuity, and access-oriented organization as features associated with better experiential outcomes. Clinical effects were more variable and context dependent.9 An executive scorecard should therefore include understanding, trust, burden, and the ability to complete the plan, without claiming that experience alone proves clinical improvement.

Cardiovascular operating system

One control layer across six settings

Shared control layerValidated measures and decision thresholdsNamed ownership and exception recoveryAccessible communication and shared decisionsMedication, transportation, cost, and technology supportClinical, functional, experience, and equity measures
Primary careRisk detection, confirmation, treatment, and longitudinal follow-up
Workplace and facilitiesAED access, drills, route readiness, and responder coordination
Emergency careRecognition, resuscitation, stabilization, and usable handoff
Pharmacy and navigationMedication safety, affordability, adherence, and coverage continuity
Cardiology and rehabilitationDefinitive care, recovery, safe exercise, function, and secondary prevention
Community partnersTrusted training, access support, responder reach, and feedback
The shared layer prevents each setting from optimizing its own task while losing the patient at the interface. It should be adapted to local governance, regulation, workforce, and community conditions.
Editorial illustration of a patient and clinician reviewing blood pressure, medication, and follow-up in a bright ambulatory setting
Original editorial illustration. Prevention becomes a closed loop when measurement, explanation, treatment, access support, and follow-up are visible in the same plan.

Make recovery and rehabilitation standard, not optional

Survival is not the only outcome that matters. After a cardiovascular event, people may face reduced endurance, fear of activity, cognitive change, medication complexity, new financial strain, work disruption, transportation difficulty, and caregiver burden. The care pathway should ask what the person needs to resume and what support makes that possible.

Cardiac rehabilitation is a multidisciplinary service, not only a supervised exercise appointment. A 2026 scoping review compared four sufficiently documented accreditation and certification schemes. Across them, 13 standards were universal or near-universal, including multidisciplinary care, assessment, exercise, education, and counseling.3 Operationalization varied, uptake was concentrated in high-income settings, and evidence that certification itself improves outcomes was limited. The review supports a common core while warning against treating a certificate as proof of access or impact.

Referral is the first reliability point. Organizations should define which diagnoses and procedures trigger an offer, whether the referral is automatic or clinician initiated, how eligibility is confirmed, who contacts the patient, and what happens after nonresponse. Completion should be stratified by geography, insurance, language, age, sex, race and ethnicity, disability, work schedule, and transportation risk. A high referral rate can coexist with low participation if the path is unaffordable or impractical.

Delivery models can be flexible, but they need comparable controls. Facility-based, hybrid, and remote programs may differ in monitoring, equipment, digital access, social connection, and emergency readiness. Scientific guidance for exercise in high-risk populations emphasizes individualized assessment, safe progression, monitoring, and escalation.1 A remote option should not become a lower-support option for people facing the highest risk or least technology access.

Medication changes need their own closed loop after discharge. Reconciliation should surface what stopped, what started, why, for how long, and who will reassess it. The patient and support person need an accessible plan that matches the dispensing record. When cost or adverse effects disrupt the plan, the system needs a rapid route back to clinical decision-making. Deprescribing guidance reinforces shared goals, indication review, and follow-up rather than abrupt, uncoordinated change.2

Functional and experience measures should sit beside attendance. Can the person walk safely, return to needed activities, understand warning signs, obtain medications, manage appointments, and act with confidence? Does the caregiver understand the plan? Is distress recognized? These questions do not replace clinical measures. They reveal whether the clinical plan can live outside the hospital.

Executive measurement table

Measure the path, not the campaign

DomainOperational measureEquity viewBalancing measureAccountable owner
PreventionConfirmed elevated blood pressure with documented plan and completed follow-upCompletion gap by site, language, coverage, geography, and digital accessAlert burden, overtreatment, and patient workloadPrimary-care operations
ReadinessTime from simulated collapse to call, CPR, and AED applicationPerformance by site, shift, building type, and public accessTraining time, false activation, and equipment downtimeEmergency preparedness
ResponseComplete event sequence and usable EMS or clinical handoffResponse-time gap by location and population servedResponder injury, privacy event, and failed escalationClinical and facilities leadership
TransitionMedication reconciliation, warning-sign understanding, and follow-up completedGap by communication, cost, transport, and caregiver needConflicting instructions and unscheduled utilizationCare transitions
RehabilitationEligible patients offered, contacted, enrolled, and completing cardiac rehabilitationFunnel loss by access-risk group and delivery modelAdverse events, dropout, and travel or digital burdenCardiology and rehabilitation
ExperienceUnderstanding, confidence, priority-function recovery, and caregiver impactChange by disability, language, living situation, and ageSurvey burden and nonresponse biasQuality and experience
Publish operational definitions, denominators, exclusions, review cadence, and ownership before comparing sites or populations. Risk-adjustment research shows that geography can distort benchmarking when context is ignored.12
Editorial illustration of a patient, support person, and clinician planning cardiac recovery and rehabilitation together
Original editorial illustration. Recovery planning connects safe activity, medication, warning signs, follow-up, access support, and the patient’s priority functions.

Use digital tools with evidence and equity gates

Remote monitoring, telemedicine, artificial intelligence, geospatial planning, and smartphone responder activation can extend reach. They can also create new exclusions, queues, false reassurance, alert fatigue, and privacy risk. The correct executive question is not whether a tool is innovative. It is whether the tool improves a defined pathway for the intended population under real operating conditions.

A 2026 systematic review and meta-analysis of 13 randomized primary-care trials involving more than 29,000 participants found favorable study-level signals for access, chronic-disease management, and satisfaction. The pooled clinical effect for telemedicine across ten trials did not reach statistical significance. The review identified clinician engagement, infrastructure, training, leadership, and workflow integration as enablers, with interoperability, skepticism, digital literacy, privacy, reimbursement, and governance as barriers.10 Digital care is an operating model, not a device.

Economic evidence also needs discipline. A 2026 meta-analysis examined 27 randomized or quasi-randomized telemedicine trials across diabetes, hypertension, and heart failure. The authors reported cost-effectiveness signals, but many studies lacked dispersion measures, limiting pooled analysis, and results varied by condition and outcome.11 Local leaders should model technology, staffing, integration, support, patient equipment, connectivity, downstream utilization, and equity impacts. A favorable result from one payer, country, or delivery model is not a universal business case.

Equity review must examine the entire funnel. For an AED program, count who is within a realistic response radius, at which hours, with which mobility assumptions. For a monitoring program, compare enrollment, device activation, usable readings, clinician review, completed contact, treatment change, and follow-up. For rehabilitation, compare offer, contact, enrollment, attendance, completion, and function. Small losses can accumulate until a program that appears broadly available becomes selectively usable.

Benchmarks should also reflect context. A 2026 analysis of 145,780 adult out-of-hospital cardiac arrests found that incorporating urbanization improved calibration and reclassification in a return-of-spontaneous-circulation model without improving overall discrimination.12 The lesson is not to copy that model everywhere. It is to avoid blaming a team, praising a site, or allocating resources from a metric that confuses geography with performance.

Every digital initiative should have a non-digital recovery route. Patients need telephone, in-person, interpreter-supported, and caregiver-assisted options where appropriate. Staff need clear action thresholds, downtime plans, escalation, and a way to correct data. Governance should define consent, data minimization, audit, bias testing, vendor change control, and what happens when a model or device conflicts with clinical judgment.

Balanced scorecard

Six views of cardiovascular reliability

ClinicalRisk control, response quality, safe treatment, medication management, and adverse-event reviewQuestion: Did care improve health safely?
TimeRecognition, call, CPR, AED, transfer, follow-up, and rehabilitation intervalsQuestion: Where did delay accumulate?
AccessCoverage, location, transportation, language, disability access, and digital alternativesQuestion: Could people complete the plan?
FunctionActivity, work, self-management, confidence, and recovery of priority rolesQuestion: Did care support life after the event?
ExperienceUnderstanding, respect, burden, trust, caregiver impact, and shared decisionsQuestion: Did the path feel coordinated?
LearningDrills, event review, near misses, disparities, technology failures, and corrective actionQuestion: Did the system become more reliable?
No single score proves system performance. Use the views together, retain local context, and separate process improvement from causal claims.

Turn American Heart Month into a 90-day reliability test

An observance does not require an enterprise-wide redesign. Choose one population, one pathway, and one measurable failure. Examples include an AED that cannot be reached quickly from a public area, drill performance that declines after hours, elevated blood pressure without closed follow-up, a post-discharge medication discrepancy, or a rehabilitation referral that never becomes contact.

During the first 30 days, map the current path. Include patients, caregivers, facilities, security, clinical teams, pharmacy, emergency preparedness, rehabilitation, technology, experience, and community partners. Walk the physical route. Review completed and failed cases. Define the numerator and denominator for each transition. Identify where responsibility becomes ambiguous and where an exception has no owner.

During days 31 through 60, test one countermeasure at limited scale. Move or relabel an AED only after route analysis and governance review. Add short, repeated team practice in the work environment. Create a closed queue for abnormal blood-pressure follow-up. Pair a pharmacist or community-health worker with a defined population. Automate rehabilitation referral while preserving clinician and patient choice. Provide telephone recovery when a digital step fails.

During days 61 through 90, compare results with baseline and stratify them. Verify that faster response did not create unsafe shortcuts, that digital reach did not exclude patients, that more referrals did not overwhelm downstream capacity, and that added documentation did not become the intervention. Decide whether to adapt, expand, or stop. Publish the operating standard, accountable owner, training cadence, exception route, and review schedule.

The strongest output is not a February dashboard. It is a repeatable improvement that remains visible in March, June, and the next budget cycle. The observance should leave behind a safer route, a clearer handoff, a more equitable service, or a closed follow-up process.

Implementation timeline

A practical 30, 60, and 90-day sequence

Days 1 to 30: See the path
  • Choose one population and one reliability problem
  • Map physical routes, clinical handoffs, delays, and access barriers
  • Set operational, equity, experience, and balancing measures
  • Review successful, failed, and near-miss cases
Days 31 to 60: Test the fix
  • Run a limited pilot with a named executive sponsor
  • Create a visible exception queue and recovery standard
  • Test with patients, responders, frontline staff, and community partners
  • Measure time, completion, burden, safety, and unintended effects
Days 61 to 90: Decide and sustain
  • Compare with baseline and stratify results
  • Adapt, expand, or stop based on evidence
  • Publish ownership, training, and review cadence
  • Carry the measure beyond the observance month
The sequence is an implementation framework. Local governance, regulation, staffing, patient needs, community conditions, and emergency-response interfaces determine the exact pace.

The leadership standard is a dependable chain

American Heart Month 2026 asks people to act during the interval before help arrives. Healthcare leaders can honor that message by making action easier and safer. The AED is findable. The emergency number works. The route is clear. Roles are practiced. Equipment is ready. Handoff information is usable. Events and near misses become learning.

The same discipline belongs before and after the emergency. Blood-pressure results need follow-up. Medication plans need access and reconciliation. Digital tools need human recovery routes. Rehabilitation needs a closed referral. Function and experience need to sit beside clinical outcomes. Equity needs to be visible at every step, not summarized only at enrollment.

The evidence does not support one universal intervention or one simple score. It supports connected systems, explicit limitations, local testing, and sustained ownership. When prevention, response, treatment, and recovery operate as one continuum, American Heart Month becomes more than a calendar entry. It becomes a practical test of whether the organization can protect time, trust, function, and life when every link matters.

Official resources

References

Peer-reviewed full-text sources are ordered newest first. Each source retains its own setting, design, denominator, and limitation.

  1. Fleg, J. L., Golbus, J. R., Afilalo, J., Cornwell III, W. K., Cuccurullo, S., Dougherty, C. M., Forman, D. E., Huffman, K. M., Khadanga, S., Mancini, D., Nytrøen, K., Reeves, G. R., & Taylor, J. A. (2026). Exercise Training in High-Risk Populations: A Scientific Statement From the American Heart Association. Circulation, 154(8), e319–e338. https://doi.org/10.1161/CIR.0000000000001456
  2. DiDomenico, R. J., Marrs, J. C., Bress, A. P., Denfeld, Q. E., Dobesh, P. P., Effron, M. B., Goyal, P., Onyebeke, C., Peterson, J. K., & Petrovic, M. (2026). Deprescribing in Patients With Cardiovascular Disease Experiencing Polypharmacy: A Scientific Statement From the American Heart Association. Circulation, 154(8), e299–e318. https://doi.org/10.1161/CIR.0000000000001459
  3. Ali, L. A. M., El-Heneidy, A., Taylor, J., Redfern, J., Gallagher, R., Candelaria, D., & Thomas, E. E. (2026). Cardiac rehabilitation programme accreditation and certification: Comparing international practices, mapping standards, benchmarks, and future directions, a scoping review. European Heart Journal. Quality of Care & Clinical Outcomes. https://doi.org/10.1093/ehjqcco/qcag131
  4. Lee, J. K., Korchmaros, J. D., Torres, C. H., Prakash, V., Granillo, A. B., English, F., Phuntsog, T. D., Lutskov, T. A., & Shaw, S. J. (2026). Design of a randomized controlled trial using a community-academic partnership to improve medication adherence: MI-CARE study protocol and implementation. Contemporary Clinical Trials, 108440. https://doi.org/10.1016/j.cct.2026.108440
  5. Schram, A., Lauridsen, K. G., Krogh, K., Nielsen, R. P., Brogaard, L., Hvidman, L., Thim, S., & Lindhard, M. S. (2026). Simulation-based Team Training Effects on Clinical Performance and Patient Outcomes: Systematic Review of Controlled Studies. Simulation in Healthcare. https://doi.org/10.1097/SIH.0000000000000965
  6. Dissanayake, M., Wardhaugh, E., Hand, C., Moodie, S., & Sibbald, S. L. (2026). Exploring Interprofessional Primary Care teams’ impact on chronic disease management: a narrative review on guiding features and reported outcomes. Journal of Interprofessional Care, 1–17. https://doi.org/10.1080/13561820.2026.2707572
  7. Ryu, D., Kim, H., & Ryu, E. (2026). Spatial Accessibility of Automated External Defibrillator Services in High-Density Older-Adult Areas: A Geographic Information System Analysis. Asian Nursing Research, 20(3), 295–302. https://doi.org/10.1016/j.anr.2026.03.002
  8. Zhang, R., Wu, F., Zhang, X., & Chen, B. (2026). Emergency Drone Deployment and Disposable Defibrillator Allocation: A Modular Capacitated Maximum Covering Location Model. Manufacturing & Service Operations Management, ja, 1. https://doi.org/10.1287/msom.2024.1027
  9. Mellado, A., Tapia Escobar, E., Pavlovic, S., Riveros, M., & Silva-Jiménez, D. (2026). Humanization interventions in primary health care: an umbrella review. Frontiers in Health Services, 1–35. https://doi.org/10.3389/frhs.2026.1835535
  10. Albarqi, M. N. (2026). Telemedicine and artificial intelligence in family medicine practice: a systematic review and meta-analysis of barriers and enablers in routine primary care. Frontiers in Digital Health, 1–14. https://doi.org/10.3389/fdgth.2026.1843244
  11. Acuti Martellucci, C., Gregori, N., Taormina, S., Diemberger, I., Sena, B., Ripamonti, G. M., Odio, C., Flacco, M. E., Colombo, A. D., Vassallo, S., & Manzoli, L. (2026). Cost-Effectiveness of Telemedicine vs Standard Care for the Management of Diabetes Mellitus, Hypertension, and Heart Failure: Meta-Analysis of Randomized Trials. Journal of Medical Internet Research, 28(6). https://doi.org/10.2196/95367
  12. Lee, D., Bender, M., Spielmann, E., Grittner, U., Prugger, C., & Friebel, J. (2026). Spatial heterogeneity in risk-adjusted return of spontaneous circulation after out-of-hospital cardiac arrest: the urbanization-adjusted RACA model. BMC Emergency Medicine, 26(1). https://doi.org/10.1186/s12873-026-01715-4
  13. Choi, Y. (2026). Community basic life support training, automated external defibrillator coverage, and bystander intervention in witnessed out-of-hospital cardiac arrest. Resuscitation, 223, 111103. https://doi.org/10.1016/j.resuscitation.2026.111103
  14. Takahashi, H., Ain, N., Fook-Chong, S., Qiao, F., Shahidah, N., Okada, Y., Ng, Y. Y., Hong, D., Leong, B. S., Chia, M. Y., Mao, D. R., Tiah, L., Mg, W. M., Doctor, N. E., Compton, S., & Ong, M. E. (2025). Impact of smartphone activated first responders on provision of bystander CPR, bystander AED and outcomes for out-of-hospital cardiac arrest. Resuscitation, 212, 110645. https://doi.org/10.1016/j.resuscitation.2025.110645
  15. Oliveira, N. C., Oliveira, H., Silva, T. L. C., Boné, M., & Bonito, J. (2025). The role of bystander CPR in out-of-hospital cardiac arrest: what the evidence tells us. Hellenic Journal of Cardiology, 82, 86–98. https://doi.org/10.1016/j.hjc.2024.09.002
  16. Fisher, A. R., Bouland, A. J., Zemple, R., Jackson, K. J., & Perkins, J. (2024). A novel approach to community CPR and AED outreach focused on underserved learner communities. JACEP Open, 5(3). https://doi.org/10.1002/emp2.13183
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