Research Appraisalobservational

Digital Health Monitoring and Intervention Suite for Stress in Frontline Nurses: Prospective Cohort Trial

JMIR formative researchRueda, Alice, Martin, Josh, Parkington, Karisa et al.11 June 2026DOI

Clinical Snapshot

60CEBM
Evidence: Weakobservational

PICO Framework

P — Population99 frontline nurses (mean age 33.7 years, 87% female) recruited via convenience sampling from social media and professional networks
I — InterventionMultimodal digital health suite combining VR stress simulation, psychoeducation intervention, ecological momentary assessments (EMAs), and wearable biometric monitoring
C — ComparatorPre-post comparison within participants (single-arm design) - baseline vs post-intervention measurements
O — OutcomesPrimary: VR-induced stress response (SUDS, MIOS-4), heart rate variability. Secondary: longitudinal stress, anxiety, sleep metrics via EMAs and wearables over 12 weeks

Bottom Line

This prospective cohort study demonstrates the feasibility of an integrated digital stress intervention combining VR simulation, psychoeducation, and continuous monitoring in 99 nurses. While the technology showed high engagement (90% completion) and induced measurable stress responses, clinical benefits were modest and short-lived. Anxiety and stress improved at 2 weeks but returned to baseline by 12 weeks. The single-arm design and convenience sampling limit confidence in effectiveness claims. The study provides proof-of-concept for multimodal digital interventions but requires randomised controlled trials to establish true efficacy. For Australian practice, this represents an innovative but unproven approach requiring careful evaluation of cost-effectiveness and implementation barriers before widespread adoption. The technology shows promise for stress identification and short-term intervention delivery in healthcare settings.

Evidence: Weak

Key Findings

  • P Value: P=0.03 for anxiety, P=0.01 for stress at 2 weeks; effects not sustained at 12 weeks

  • Effect Size: Anxiety reduction: mean -0.53 (SD 2.34); Stress reduction: mean -3.05 (SD 11.35) at 2 weeks

  • Primary Outcome: VR successfully induced stress responses with significant increases in SUDS scores across both simulation runs (P<0.001)

  • Nnt Or Sensitivity: 50-75% of participants showed reliable improvement in moral injury symptoms immediately post-intervention

  • Confidence Interval: Not consistently reported

Clinical Application

High engagement demonstrated but requires significant technological infrastructure and training. Cost-effectiveness unclear Relevant to Australian nursing workforce stress management. Would require TGA consideration for medical device components. Could align with RACGP digital health guidelines and workplace mental health initiatives Frontline nurses and potentially other healthcare workers in high-stress environments, particularly those comfortable with digital technology

Abstract

BACKGROUND: Stress among health care workers (HCWs) contributes to burnout, workforce attrition, and adverse patient outcomes. Although virtual reality (VR), psychoeducation, ecological momentary assessments (EMAs), and wearables have independently shown promise in stress research, no integrated digital suite has combined controlled stress induction, intervention delivery, and longitudinal real-world monitoring in HCWs. OBJECTIVE: This study aimed to evaluate the feasibility, engagement, and preliminary effectiveness of a multimodal Digital Health Monitoring and Intervention suite for Stress framework integrating VR simulation, psychoeducation, EMAs, and wearable biometrics. We examined (1) the impact of VR simulation and psychoeducation on stress outcomes and (2) associations between physiological and self-reported mental health outcomes. METHODS: Ninety-nine nurses (mean age 33.7, SD 8.9 yr, 87% female) were enrolled in 2023. We conducted a single-arm prospective cohort study (NCT05923398). Using convenience sampling, participants were recruited from social media advertisements, flyers, and email notices distributed through professional listservs. Participants completed ≥2-week baseline monitoring, a single VR session (2 runs separated by a brief psychoeducation intervention), and 12-week follow-up. In-VR stress was assessed using the Subjective Units of Distress Scale (SUDS) and 4-item Moral Injury Outcome Scale (MIOS-4), with synchronous heart rate variability. Longitudinal outcomes included weekly and biweekly EMAs alongside 70 wearable-derived features. Paired t tests, aligned rank transform ANOVA, and Pearson correlations informed study objectives, with P values adjusted for multiple comparisons. Qualitative content analysis classified emotional responses during and after VR. RESULTS: VR significantly increased subjective stress across checkpoints in both runs, with attenuation in Run B relative to Run A (all P<.001). No significant heart rate variability differences were observed between runs (P=.15). During VR, 92% (91/99) of participants felt stressed, 36% (36/99) reported anxiety or nervousness, and 51% (50/99)-78% (77/99) endorsed anger, guilt, shame, and/or betrayal. Most (59/99, 60%) HCWs returned to an emotional baseline post-VR, although 12% (12/99) reported lingering distress. Immediate reliable improvements in anger, guilt, shame, and/or betrayal occurred for 50% (50/99)-75% (74/99) of participants post intervention. Anxiety (mean -0.53, SD 2.34; P=.03) and stress (mean -3.05, SD 11.35; P=.01) decreased 2 weeks post intervention, but were not sustained at 12 weeks. Increased sleep restlessness was the only wearable feature showing significant changes (mean 2.46%, SD 5.43; Padj<.001). In-VR stress correlated with 12-week real-world stress (SUDS: r=0.57-0.58; MIOS-4: r=0.58-0.61; all P<.01). Data completion exceeded 90%, with 71% achieving full compliance. CONCLUSIONS: This study moves beyond single-tool interventions to demonstrate the feasibility and preliminary effectiveness of an integrated, multimodal stress platform within a single coordinated framework. This trial demonstrates high engagement, short-term symptom responsiveness, ecological validity, and emotional safety. The framework provides a scalable model for proactive stress identification, skills training, and implementation in high-risk occupational settings. Randomized controlled trials are needed to establish sustained efficacy and optimize deployment for real-world implementation.

References

  1. 1.Rueda, A., Martin, J., Parkington, K., Perivolaris, A., Teferra, B. G., Lee, G. H., Tassone, V. K., Lin, Q., Ivanov, M., Darnell, B., Beavers, L., Campbell, D. M., Torres, A., Lou, W., Nazarov, A., Ashbaugh, A., Kapralos, B., Litz, B., Jetly, R., Dubrowski, A., Strudwick, G., Krishnan, S., & Bhat, V. (2026). Digital Health Monitoring and Intervention Suite for Stress in Frontline Nurses: Prospective Cohort Trial. JMIR Formative Research. https://doi.org/10.2196/77818
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