Development and Implementation of a Pediatric Trauma Survivors Network Program.

Children in the United States account for nearly 12 million injury-related emergency department (ED) visits each year (Centers for Disease Control and Prevention, 2016). In each of these encounters, the pediatric patient will interact with a nurse. For many, the images of freestanding children's hospitals come to mind when they hear the words pediatric trauma. Almost half of all children in the United States live more than 30 min from a Pediatric Trauma Center, meaning that many injured children are first cared for at a nonpediatric trauma center (United States Government Accountability Office, 2017). Conversations about improving care for pediatric trauma patients need to be among all types of health care settings. Nurses caring for injured children, regardless of the setting, need access to continuing education in pediatric trauma. In this pediatric-specific issue of the Journal of Trauma Nursing (JTN), you will find that although there are continuing education programs focused on pediatric trauma nursing sponsored by professional organizations and entities, there remains significant variability in the access and utilization of these courses. In addition, this issue presents data to support that there is variability on what nurses perceive their learning needs to be and their access to evidence-based guidelines for the care of injured children. From attending the Fourth World Trauma Congress this past fall in San Diego, CA, it was evident that nurses from around the world are passionate about similar themes and are ready to collaborate to improve outcomes for injured children. Pediatric trauma care providers should be cognizant that pediatric patients are a special population when it comes to receiving trauma care. The saying “they're not just little adults” is important to keep in mind when we think about pediatric triage and resuscitation in the trauma bay. Children also have anatomical differences when compared with adults. Their large heads can increase incidence for falls (Pandya, Upasani, & Kulkarni, 2013). This issue explores many topics that reflect the clinical nuances in the care of injured children including articles about a decreasing pediatric trauma length of stay, an exploration of the continuing education programs that our own members of the Society of Trauma Nurses (STN) engage in to learn more about the care of injured children, and a pediatric fall prevention program. A trauma nurse who encounters pediatric trauma patients should be aware of subtle signs of emotional stress, inappropriate developmental behavior, and mechanism of injuries that are suspicious for the injury pattern (Escobar et al., 2017). Not only does trauma impact the person physiologically but emotionally as well (Makley & Falcone, 2010). This issue highlights implementation of a multidisciplinary program dedicated to pediatric trauma survivors at a children's hospital as well as experiences cohorting trauma patients in a medical/surgical unit at a Level I Pediatric Trauma Center in an effort to improve collaboration and documentation. The Pediatric Steering Committee for STN has worked hard in developing the themes for this pediatric-specific issue of JTN to highlight some of the significant challenges and opportunities that we face as nurses who care for injured children regardless of the type of facility we work at. We would like to thank the authors for their commitment to improving the care of injured children.

Objective, To survey the pediatric trauma programs to ascertain if and how etomidate is being used for rapid sequence intubation (RSI) in pediatric trauma patients. Design, A 25 question survey was created using REDCaps. A link to the survey was emailed to each of the pediatric and adult trauma programs that care for pediatric patients. Setting, Pediatric trauma programs and adult trauma programs caring for pediatric patients. Intervention, None. Measurements and Main Results, A total of 16% of programs responded (40/247). The majority of the centers that responded are urban, academic, teaching Level 1 pediatric trauma centers that provide care for > 200 pediatric trauma patients annually. The trauma program directors were the most likely to respond to the survey (18/40). 33/38 respondents state they use etomidate in their RSI protocol but it is not used in all pediatric trauma patients. 26/38 respondents believe that etomidate is associated with adrenal suppression and 24/37 believe it exacerbates adrenal suppression in pediatric trauma patients yet 28 of 37 respondents do not believe it is clinically relevant. Conclusions, Based on the results of the survey, the use of etomidate in pediatric trauma patients is common among urban, academic, teaching, level 1 pediatric trauma centers. A prospective evaluation of etomidate use for RSI in pediatric trauma patients to evaluate is potential effects on adrenal suppression and hemodynamics is warranted.

Error traps and culture of safety in pediatric trauma

Discharge from hospital against medical advice (AMA) carries a significant risk of readmission and has increased rates of morbidity and mortality. Little is known about the characteristics of pediatric trauma patients discharged AMA. We aimed to identify predictors for discharge AMA in pediatric trauma patients. A 3-year retrospective cohort analysis of the 2017-2019 American College of Surgeons (ACS) Trauma Quality Improvement Program was performed. All pediatric (younger than 18 years) trauma patients were included. Patients with missing data on hospital discharge disposition were excluded. Two groups were compared: those discharged AMA and those who were not. Bivariate analysis using χ 2 test was performed. A multivariable logistic regression analysis was performed to identify predictors for discharge AMA adjusting for age, sex, race, ethnicity, comorbidities, positive drug or alcohol screen, insurance status, injury severity, 4-hour packed red blood cells requirements, vitals, mechanisms of injury, and ACS Pediatric Trauma Center Verification Level. A total of 259,363 pediatric trauma patients were identified; 436 (0.2%) were discharged AMA. Patients discharged AMA were older (mean age, 13 vs. 10 years; p < 0.001) and were more likely to be males (70% vs. 65%, p < 0.001), Black (31% vs. 18%, p < 0.001), and uninsured; to have a penetrating mechanism of injury (17% vs. 9%, p < 0.001); to be a victim of an assault; and to be treated at a non-pediatric-ACS-verified trauma center. Patients discharged AMA were more likely to test positive for alcohol or illicit drugs at time of admission. They were also more likely to undergo an abuse investigation and to be reported to Child Protective Services. Discharge AMA is affected by different patient- and system-related factors. Understanding these factors could enable targeted interventions in clinical practice and policy. Our findings highlight the important role of pediatric trauma centers in addressing the needs of injured children. Therapeutic/Care Management; Level III.

Early hypocalcemia (EH) is common in adult major trauma patients and has been associated with coagulopathy, shock, increased transfusion requirements, and mortality. The incidence of EH in pediatric severe trauma has not been investigated. We aimed to explore the incidence of EH among severely injured children. We conducted a retrospective cohort study at a tertiary children's hospital and a level 1 pediatric trauma center. We extracted the medical records of all pediatric major trauma patients, defined as an age less than 18 years and an Injury Severity Score (ISS) greater than 15, admitted after trauma team activation from January 2010 to December 2020.The primary outcome was the presence of EH. Patients were classified into 3 groups: severe hypocalcemia (ionized calcium [iCa] <1 mmol/L), hypocalcemia (1 < iCa < 1.16 mmol/L), and normal calcium (iCa ≥1.16 mmol/L). During the study period, 5126 children were hospitalized because of trauma. One hundred eleven children met the inclusion criteria. The median age was 11 years (interquartile range [IQR], 4-15), and 78.4% (87) were male. The median ISS was 21 (IQR, 17-27).Hypocalcemia was found in 19.8% (22) and severe hypocalcemia in 2.7% (3) of the patients.Although not statistically significant, hypocalcemic pediatric trauma patients had higher ISS (25.5 [IQR, 17-29] vs 21 [IQR, 17-26], P = 0.39), lower Glasgow Coma Scale (11 [IQR, 3-15] vs 13 [IQR, 7-15], P = 0.24), a more prolonged hospital stay (8 days [IQR, 2-16] vs 6 days [IQR, 3-13], P = 0.36), a more frequent need for blood products (27.3% vs 20.2%, P = 0.74), and higher mortality rates (9.1% vs 1.1%, P = 0.18) compared with normocalcemic patients. Our data suggest that in the setting of major trauma, EH is less frequent in children than previously reported in adults. Our preliminary data suggest that pediatric patients with EH may be at risk of increased morbidity and mortality compared with children with normal admission iCa requiring further studies.

IntroductionIncreased out-of-hospital time is associated with worse outcomes in trauma. Sparse literature exists comparing prehospital scene and transport time management intervals between adult and pediatric trauma patients. National Emergency Medical Services guidelines recommend that trauma scene time be less than 10 minutes. The objective of this study was to examine prehospital time intervals in adult and pediatric trauma patients.MethodsWe performed a retrospective cohort study of blunt and penetrating trauma patients in a five-county region in North Carolina using prehospital records. We included patients who were transported emergency traffic directly from the scene by ground ambulance to a Level I or Level II trauma center between 2013–2018. We defined pediatric patients as those less than 16 years old. Urbanicity was controlled for using the Centers for Medicare and Medicaid’s Ambulance Fee Schedule. We performed descriptive statistics and linear mixed-effects regression modeling.ResultsA total of 2179 records met the study criteria, of which 2077 were used in the analysis. Mean scene time was 14.2 minutes (95% confidence interval [CI], 13.9–14.5) and 35.3% (n = 733) of encounters had a scene time of 10 minutes or less. Mean transport time was 17.5 minutes (95% CI, 17.0–17.9). Linear mixed-effects regression revealed that scene times were shorter for pediatric patients (p<0.0001), males (p=0.0016), penetrating injury (p<0.0001), and patients with blunt trauma in rural settings (p=0.005), and that transport times were shorter for males (p = 0.02), non-White patients (p<0.0001), and patients in urban areas (p<0.0001).ConclusionThis study population largely missed the 10-minute scene time goal. Demographic and patient factors were associated with scene and transport times. Shorter scene times occurred with pediatric patients, males, and among those with penetrating trauma. Additionally, suffering blunt trauma while in a rural environment was associated with shorter scene time. Males, non-White patients, and patients in urban environments tended to have shorter transport times. Future studies with outcomes data are needed to identify factors that prolong out-of-hospital time and to assess the impact of out-of-hospital time on patient outcomes.

Vascular injury in pediatric trauma patients is uncommon but associated with a reported mortality greater than 19% in some series. The purpose of this study was to characterize pediatric major vascular injuries (MVIs) and analyze mortality at a high-volume combined adult and pediatric trauma center. A retrospective review (January 2000 to May 2016) was conducted of all pediatric (<18 years old) trauma patients who presented with a vascular injury. A total of 177 patients were identified, with 60 (34%) having an MVI, defined as injury in the neck, torso, or proximal extremity. Patients were then further analyzed based on location of injury, mechanism, age, and race. P ≤ 0.05 was deemed significant. Of the 60 patients with MVI, the mean age was 14.3 years (range, 4-17 years). Mean intensive care unit length of stay (LOS) was 5.4 days, and mean hospital LOS was 12.5 days. Blunt mechanism was more common in patients 14 years or younger; penetrating trauma was more common amongst patients older than 14 years. Overall, blunt injuries had a longer intensive care unit LOS compared with penetrating trauma (7.8 vs 3.1 days; P = 0.016). A total of 33% (n = 20) of MVIs occurred in the torso, with 50% (n = 10) of these from blunt trauma. Location of injury did correlate with mortality; 45% (n = 9) of torso MVIs resulted in death (penetrating n = 7, blunt n = 2). Overall mortality from an MVI was 15.3% (n = 9); all were torso MVIs. Higher Injury Severity Score and Glasgow Coma Scale score were found to be independently associated with mortality. Our experience demonstrates that MVIs are associated with a significant mortality (15.3%), with a majority of those resulting from gunshot wounds, more than 9-fold greater than the overall mortality of pediatric trauma patients at our institution (1.6%). Further research should be aimed at improving management strategies specific for MVIs in the pediatric trauma patient as gun violence continues to afflict youth in the United States.

Trauma has more than physical effects on pediatric patients and their families. The purpose of this study was to evaluate pediatric orthopaedic trauma patients and patients with isolated nonoperative upper extremity (UE) fractures for emotional/psychologic symptoms associated with posttraumatic stress disorder (PTSD) and parent stress. An institutional review board-approved prospective study of patients aged 8-18 years who sustained a traumatic injury or isolated UE fracture from October 2009 to May 2010 was performed. Demographic data were obtained and the Child PTSD Symptom Scale was used. The Parent Stress Index was used to evaluate the stress of the parents/guardian. For 80% power, we needed 32 per group. P value was set at <0.05. A total of 76 children and their parents/guardians participated in the study. The mean age was 12.6 years (8-17 years). There were 56 males (74%) and 20 females (26%). The average time since injury was 12 months (3-89 months). The prevalence of PTSD between the high-energy trauma patients and the low-energy nonoperative UE patients was not significant. Overall, 33% of the children had PTSD. Involvement in music was significant between patients with and without PTSD (P = 0.037) and may be protective against PTSD. PTSD commonly affects pediatric patients who sustain injuries as a result of a traumatic event, whether low- or high-energy mechanisms. We found no factors significantly associated with or predictive of PTSD and did not find an association of PTSD with parent stress. We need to maintain a high index of suspicion in pediatric trauma patients regardless of the energy associated with the traumatic event. Prognostic Level II. See Instructions for Authors for a complete description of levels of evidence.

The initial base deficit (BD) is an important indicator of shock in adult trauma patients, but its value is unclear in pediatric trauma patients. This study assessed the ability of the initial BD to predict mortality and blood transfusion requirements in children except severe brain injury patients. This study was a retrospective review of pediatric patients with severe trauma arriving at the emergency department of a university hospital from January 1998 to June 2005. Blood pressure, the initial BD, and the Injury Severity Score were assessed as independent predictors of mortality and the blood transfusion requirement using multiple regression analysis. The study group constituted 102 patients. According to the multiple regression analysis results, the initial systolic blood pressure, Injury Severity Score, and blood transfusion requirement were not independent predictors of mortality (P = 0.104, 0.959, 0.386, respectively). By contrast, the initial BD was an independent predictor, with an odds ratio of 13.6 for BD of -8 mEq/L or less (confidence interval [CI], 3.51-35.23, P = 0.037), and systolic blood pressure and BD were independent predictors of blood transfusion requirement; the odds ratio for hypotension was 3.2 (CI, 0.51-8.32, P = 0.044), and the odds ratio was 15.3 for BD values of -8 or less (CI, 2.24-51.43, P = 0.003). The initial BD in pediatric trauma patients except severe brain injury was an independent predictor of mortality and blood transfusion requirement within 24 hours. Mortality and blood transfusion requirement were significantly high when initial BD was less than -8 mEq/L.

The base deficit (B), international normalized ratio (I), and Glasgow coma scale (GCS) (BIG) score is useful in predicting mortality in pediatric trauma patients; however, studies on the use of BIG score in adult patients with trauma are sparse. In addition, studies on the correlation between the BIG score and massive transfusion (MT) have not yet been conducted. This study aimed to evaluate the predictive value of BIG score for mortality and the need for MT in adult trauma patients. This retrospective study used data collected between 2016 and 2020 at our hospital's trauma center and registry. The predictive value of BIG score was compared with that of the Injury Severity Score (ISS) and Revised Trauma Score (RTS). Logistic regression analysis was carried out to assess whether BIG score was an independent risk factor. Receiver operating characteristic (ROC) curve analysis was performed, and predictive values were evaluated by measuring the area under the ROC curve (AUROC). In total, 5,605 patients were included in this study. In logistic regression analysis, BIG score was independently associated with in-hospital mortality (odds ratio (OR): 1.1859; 95% confidence interval (CI): 1.1636-1.2086) and MT (OR: 1.0802; 95% CI: 1.0609-1.0999). The AUROCs of BIG score for in-hospital mortality and MT were 0.852 (0.842-0.861) and 0.848 (0.838-0.857), respectively. Contrastingly, the AUROCs of ISS and RTS for in-hospital mortality were 0.795 (0.784-0.805) and 0.859 (0.850-0.868), respectively. Moreover, AUROCs of ISS and RTS for MT were 0.812 (0.802-0.822) and 0.838 (0.828-0.848), respectively. The predictive value of BIG score for mortality and MT was significantly higher than that of the ISS. The BIG score also showed a better AUROC for predicting in-hospital mortality compared with RTS. In conclusion, the BIG score is a useful indicator for predicting mortality and the need for MT in adult trauma patients.

339 Does Shock Index, Pediatric Age-Adjusted Help Predict Mortality by Trauma Center Type?

Prospective studies have shown sensitivities of 73% to 88% and specificities of 98% to 100% for using the focused assessment with sonography for trauma (FAST) examination to identify free fluid in adult trauma patients. However, the efficacy of FAST examinations for pediatric trauma patients has not been well defined, and studies looking at diagnostic performance have had varied results. We describe 3 cases of the potential pitfalls of the pediatric FAST examination in pediatric trauma patients using an advanced-processing ultrasound machine. We hypothesize several etiologies for these false-positive findings in the setting of advanced image-processing capabilities of point-of-care ultrasound. We also discuss the reevaluation of clinical algorithms and interpretation practices when using the FAST examination in pediatric trauma.

Base deficit (BD), as an endpoint for trauma resuscitation, has been extensively studied in the adult trauma patient but not in the pediatric population. We proposed that admission BD would correlate with outcomes after trauma in a pediatric population. This study was a retrospective review of all patients admitted to the pediatric intensive care unit in an adult trauma center with pediatric commitment in whom an admission BD was available, over the 5-year period ending June 2001. A total of 65 patients formed the study population. Overall mortality was 20%. Patients who died were younger (6 +/- 5 vs. 9 +/- 5 years; p = 0.009), had lower Glasgow Coma Scale scores at admission (7 +/- 5 vs. 10 +/- 5; p < 0.0001), had higher Injury Severity Scores (24 +/- 14 vs. 14 +/- 9; p < 0.0001), and had lower Pediatric Trauma Scores (7 +/- 4 vs. 10 +/- 2; p < 0.0001). No patient with a BD less negative than -5 died, whereas 13 of 37 patients with a BD of -5 or higher died (37%) (p < 0.0001). Of the 13 patients who died, 8 never cleared their BD and died within 33 +/- 18 hours of admission. Failure to clear BD was associated with 100% mortality. Five patients who normalized their BD died of isolated closed head injuries (time to death, 37 +/- 18 hours; p = not significant). All surviving patients normalized their BD within 43 +/- 41 hours of admission. Seventy-five percent of patients who survived (39 of 52) had a normal BD within 48 hours of admission. Admission BD in the pediatric trauma patient is a strong indicator of posttraumatic shock. An admission BD of < or = -5 is predictive of severe injury and of poor outcome, with a 37% mortality in this series. Failure to clear BD is an extremely poor prognostic indicator.

Background: This study aimed to evaluate the impact of an AI-assisted fracture detection program on radiology residents’ performance in pediatric and adult trauma patients and assess its implications for residency training. Methods: This study, conducted retrospectively, included 200 radiographs from participants aged 1 to 95 years (mean age: 40.7 ± 24.5 years), encompassing various body regions. Among these, 50% (100/200) displayed at least one fracture, totaling one hundred thirty-five fractures, assessed by four radiology residents with different experience levels. A machine learning algorithm was employed for fracture detection, and the ground truth was established by consensus among two experienced senior radiologists. Fracture detection accuracy, reporting time, and confidence were evaluated with and without AI support. Results: Radiology residents’ sensitivity for fracture detection improved significantly with AI support (58% without AI vs. 77% with AI, p < 0.001), while specificity showed minor improvements (77% without AI vs. 79% with AI, p = 0.0653). AI stand-alone performance achieved a sensitivity of 93% with a specificity of 77%. AI support for fracture detection significantly reduced interpretation time for radiology residents by an average of approximately 2.6 s (p = 0.0156) and increased resident confidence in the findings (p = 0.0013). Conclusion: AI support significantly enhanced fracture detection sensitivity among radiology residents, particularly benefiting less experienced radiologists. It does not compromise specificity and reduces interpretation time, contributing to improved efficiency. This study underscores AI’s potential in radiology, emphasizing its role in training and interpretation improvement.

Pediatric trauma recidivism in an urban cohort