scholarly journals A Neonatal Intensive Care Unit’s Experience with Implementing an In-Situ Simulation and Debriefing Patient Safety Program in the Setting of a Quality Improvement Collaborative

Children ◽  
2020 ◽  
Vol 7 (11) ◽  
pp. 202
Author(s):  
Mary Eckels ◽  
Terry Zeilinger ◽  
Henry C. Lee ◽  
Janine Bergin ◽  
Louis P. Halamek ◽  
...  

Extensive neonatal resuscitation is a high acuity, low-frequency event accounting for approximately 1% of births. Neonatal resuscitation requires an interprofessional healthcare team to communicate and carry out tasks efficiently and effectively in a high adrenaline state. Implementing a neonatal patient safety simulation and debriefing program can help teams improve the behavioral, cognitive, and technical skills necessary to reduce morbidity and mortality. In Simulating Success, a 15-month quality improvement (QI) project, the Center for Advanced Pediatric and Perinatal Education (CAPE) and California Perinatal Quality Care Collaborative (CPQCC) provided outreach and training on neonatal simulation and debriefing fundamentals to individual teams, including community hospital settings, and assisted in implementing a sustainable program at each site. The primary Aim was to conduct two simulations a month, with a goal of 80% neonatal intensive care unit (NICU) staff participation in two simulations during the implementation phase. While the primary Aim was not achieved, in-situ simulations led to the identification of latent safety threats and improvement in system processes. This paper describes one unit’s QI collaborative experience implementing an in-situ neonatal simulation and debriefing program.

CJEM ◽  
2016 ◽  
Vol 18 (S1) ◽  
pp. S45-S45
Author(s):  
G. Mastoras ◽  
C. Poulin ◽  
L. Norman ◽  
B. Weitzman ◽  
A. Pozgay ◽  
...  

Introduction: Emergency Department (ED) resuscitation is a complex, high-stakes procedure where positive outcomes depend upon effective interactions between the healthcare team, the patient, and the environment. To this end, resuscitation teams work in spaces designed to optimize workflows and ensure that necessary treatments and skillsets are available when required. However, systematic failures in this environment cannot always be adequately anticipated, exposing patients to opportunities for harm. As part of a new interprofessional education initiative, this prospective, observational study sought to characterize latent threats to patient safety (LST’s) identified during the delivery of in-situ, simulated resuscitations in two Canadian, tertiary care, academic Emergency Departments. Methods: In-situ simulation sessions were delivered on a monthly basis in the EDs of each hospital campus, during which a variety of simulated resuscitation scenarios were run with distinct teams of ED healthcare professionals. A research assistant was present throughout each session and documented LST’s identified by simulation facilitators and participants during the case and debriefing. Data were entered into a master table and grouped thematically for analysis. Results: After a pilot run-in, 10 in-situ simulation sessions were delivered, involving 27 cases and reaching 180 ED healthcare professionals (25 attending MD, 37 resident MD, 59 RN, 24 RT). 83 latent safety threats were identified through these sessions (mean 3.1 LSTs per case) of which 52 were determined to be “actionable”. Corrective mechanisms have been initiated in 72% of these cases (e.g., new education campaigns and in-servicing, equipment provisioning, equipment checklists). Conclusion: In-situ simulation, beyond its role as a training tool for developing Non-Technical and Crisis Resource Management skills, can be effectively used to identify systematic deficits and knowledge gaps that could expose critically ill patients to harm. Effective quality improvement and continuing education programs are essential to translate these findings into more resilient patient care.


2021 ◽  
Vol 41 (1) ◽  
pp. e1-e8
Author(s):  
Kristen M. Brown ◽  
Shawna S. Mudd ◽  
Julianne S. Perretta ◽  
Adam Dodson ◽  
Elizabeth A. Hunt ◽  
...  

Background Simulation is increasingly used to identify latent threats to patient safety, such as delays in recognition and management of time-sensitive conditions. The Rapid Cycle Deliberate Practice teaching method may facilitate “nano” (brief) in situ simulation training in a critical care setting to improve multidisciplinary team performance of time-sensitive clinical tasks. Objective To determine whether nano–in situ simulation training with Rapid Cycle Deliberate Practice can improve pediatric intensive care unit team proficiency in identifying and managing postoperative shock in a pediatric cardiac patient. Methods A quality improvement educational project was conducted involving nano–in situ simulation sessions in a combined pediatric and pediatric cardiac intensive care unit. The Rapid Cycle Deliberate Practice method was used with an expert-driven checklist for 30-minute simulation scenarios. Results A total of 23 critical care providers participated. The proportion of time-sensitive tasks completed within 5 minutes increased significantly from before to after training (52% [13 of 25] vs 100% [25 of 25]; P ≤ .001). Using a 5-point Likert scale, with higher scores indicating higher levels, the participants reported high degrees of performance confidence (mean, 4.42; SD, 0.20) and satisfaction with the simulation experience (mean, 4.96; SD, 0.12). Conclusion The Rapid Cycle Deliberate Practice method was used to facilitate nano–in situ simulation training and identify areas requiring additional education to improve patient safety. In situ simulation can educate providers in a cost-effective and timely manner.


2018 ◽  
Vol 23 (suppl_1) ◽  
pp. e16-e16
Author(s):  
Ahmed Moussa ◽  
Audrey Larone-Juneau ◽  
Laura Fazilleau ◽  
Marie-Eve Rochon ◽  
Justine Giroux ◽  
...  

Abstract BACKGROUND Transitions to new healthcare environments can negatively impact patient care and threaten patient safety. Immersive in situ simulation conducted in newly constructed single family room (SFR) Neonatal Intensive Care Units (NICUs) prior to occupancy, has been shown to be effective in testing new environments and identifying latent safety threats (LSTs). These simulations overlay human factors to identify LSTs as new and existing process and systems are implemented in the new environment OBJECTIVES We aimed to demonstrate that large-scale, immersive, in situ simulation prior to the transition to a new SFR NICU improves: 1) systems readiness, 2) staff preparedness, 3) patient safety, 4) staff comfort with simulation, and 5) staff attitude towards culture change. DESIGN/METHODS Multidisciplinary teams of neonatal healthcare providers (HCP) and parents of former NICU patients participated in large-scale, immersive in-situ simulations conducted in the new NICU prior to occupancy. One eighth of the NICU was outfitted with equipment and mannequins and staff performed in their native roles. Multidisciplinary debriefings, which included parents, were conducted immediately after simulations to identify LSTs. Through an iterative process issues were resolved and additional simulations conducted. Debriefings were documented and debriefing transcripts transcribed and LSTs classified using qualitative methods. To assess systems readiness and staff preparedness for transition into the new NICU, HCPs completed surveys prior to transition, post-simulation and post-transition. Systems readiness and staff preparedness were rated on a 5-point Likert scale. Average survey responses were analyzed using dependent samples t-tests and repeated measures ANOVAs. RESULTS One hundred eight HCPs and 24 parents participated in six half-day simulation sessions. A total of 75 LSTs were identified and were categorized into eight themes: 1) work organization, 2) orientation and parent wayfinding, 3) communication devices/systems, 4) nursing and resuscitation equipment, 5) ergonomics, 6) parent comfort; 7) work processes, and 8) interdepartmental interactions. Prior to the transition to the new NICU, 76% of the LSTs were resolved. Survey response rate was 31%, 16%, 7% for baseline, post-simulation and post-move surveys, respectively. System readiness at baseline was 1.3/5,. Post-simulation systems readiness was 3.5/5 (p = 0.0001) and post-transition was 3.9/5 (p = 0.02). Staff preparedness at baseline was 1.4/5. Staff preparedness post-simulation was 3.3/5 (p = 0.006) and post-transition was 3.9/5 (p = 0.03). CONCLUSION Large-scale, immersive in situ simulation is a feasible and effective methodology for identifying LSTs, improving systems readiness and staff preparedness in a new SFR NICU prior to occupancy. However, to optimize patient safety, identified LSTs must be mitigated prior to occupancy. Coordinating large-scale simulations is worth the time and cost investment necessary to optimize systems and ensure patient safety prior to transition to a new SFR NICU.


2017 ◽  
Vol 22 (03) ◽  
pp. 124-125
Author(s):  
Maria Weiß

Hatch LD. et al. Intervention To Improve Patient Safety During Intubation in the Neonatal Intensive Care Unit. Pediatrics 2016; 138: e20160069 Kinder auf der Neugeborenen-Intensivstation sind besonders durch Komplikationen während des Krankenhausaufenthaltes gefährdet. Dies gilt auch für die Intubation, die relativ häufig mit unerwünschten Ereignissen einhergeht. US-amerikanische Neonatologen haben jetzt untersucht, durch welche Maßnahmen sich die Komplikationsrate bei Intubationen in ihrem Perinatal- Zentrum senken lässt.


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