Thoracic Ultrasound for Detection of Pneumothorax Following Thoracostomy Tube Removal in Trauma Patients.

INTRODUCTION: Screening for pneumothorax (PTX) is standard practice after thoracostomy tube removal, with postpull CXR being the gold standard. However, studies have shown that point-of-care thoracic ultrasound (POCTUS) is effective at detecting PTX and may represent a viable alternative. This study aims to evaluate the safety and efficacy of POCTUS for evaluation of clinically significant postpull PTX compared with chest x-ray (CXR). METHODS: We performed a prospective, cohort study at a Level 1 trauma center between April and December 2022 comparing the ability of POCTUS to detect clinically significant postpull PTX compared with CXR. Patients with thoracostomy tube placed for PTX, hemothorax, or hemopneumothorax were included. Clinically insignificant PTX was defined as a small residual or apical PTX without associated respiratory symptoms or need for thoracostomy tube replacement while clinically significant PTX were moderate to large or associated with physiologic change. RESULTS: We included 82 patients, the most common etiology was blunt trauma (n = 57), and the indications for thoracostomy tube placement were: PTX (n = 38), hemothorax (n = 15), and hemopneumothorax (n = 14). One patient required thoracostomy tube replacement for recurrent PTX identified by both ultrasound and X-ray. Thoracic ultrasound had a sensitivity of 100%, specificity of 95%, positive predictive value of 60%, and negative predictive value of 100% for the detection of clinically significant postpull PTX. CONCLUSIONS: The use of POCTUS for the detection of clinically significant PTX after thoracostomy tube removal is a safe and effective alternative to standard CXR. This echoes similar studies and emphasizes the need for further investigation in a multicenter study.

Efficacy, Safety, and Complications of Pigtail Thoracostomy for the Treatment of Pediatric Pleuropneumonia.

OBJECTIVE: Pigtail thoracostomy (PT) has become the mainstay technique for the drainage of pediatric pleuropneumonic effusions (PLPe). However, its efficacy and complication profile has been questioned when compared with video-assisted thoracoscopic surgery and larger bore traditional tube thoracostomy. The aim of this study was to assess the efficacy, safety, and complications associated with PT. METHODS: A cross-sectional study at a freestanding tertiary children's hospital. We extracted the medical records of all children aged younger than 18 years treated with PT for PLPe from June 2016 to June 2020. The primary efficacy outcome was treatment failure defined as the need for a repeat drainage procedure, thoracostomy, or video-assisted thoracoscopic surgery. Secondary efficacy outcomes were length of hospital stay (LOS) and duration of in situ PT. The primary safety outcomes were adverse events during or after insertion. We also recorded any associated complications. RESULTS: During the study period, 55 children required PT. The median age was 25 months (interquartile range, 14-52) and 58.2% were boys. Eight (14.4%) were bacteremic or in septic shock. There were no adverse events related to insertion. Forty-two (76.3%) children were treated with fibrinolysis. There were 2 (3.6%) treatment failures. The median LOS and PT durations were 13 and 4 days (interquartile ranges, 10-14.8, 3-6.7), respectively. Eight (14.4%) children experienced complications that were nonoperatively managed. CONCLUSIONS: Our findings suggest that PT drainage offers a safe and highly effective option for managing PLPe and carries a very low failure rate.

Validation of the 35-mm rule in traumatic pneumothorax in an Asian population.

OBJECTIVES: Thoracic injury crucially threatens human health. Recent studies have suggested using computed tomography (CT) to observe traumatic pneumothorax (PTX). However, cross-ethnic validation is required to overcome potential barriers for the global application of this method. This study aimed to validate the 35-mm rule in traumatic PTX in a Korean population. METHODS: Data from the institutional registry were analyzed, and chest CT images were reviewed. Factors for observation failure were evaluated via logistic regression analysis, and a receiver-operating curve was created to calculate the optimal cutoff value. RESULTS: In total, 286 participants were included in this study. The average PTX size was 8.2 (3.2-26.5) mm, and 210 of 213 (95.3%) initially observed patients with a PTX size of ≤35 mm successfully completed the safety observation. Multivariate regression analysis revealed that a PTX size of >35 mm is associated with observation failure and suggested a cutoff of 24.5 mm. CONCLUSION: Most patients with traumatic PTX of ≤35 mm on CT had undergone successful 4-h observation without thoracostomy. Additionally, PTX of >35 mm was an independent risk factor for observation failure. Considering the lower optimal cutoff value and high failure rates observed in this study, the current guidelines need modifications.

Routine chest radiography after thoracostomy tube removal and during postoperative follow-up is not necessary after lung resection.

OBJECTIVES: The need for routine chest radiography following chest tube removal after elective pulmonary resection may be unnecessary in most patients. The purpose of this study was to determine the safety of eliminating routine chest radiography in these patients. METHODS: Patients who underwent elective pulmonary resection, excluding pneumonectomy, for benign or malignant indications between 2007 and 2013 were reviewed. Patients with in-hospital mortality or without routine follow-up were excluded. During this interval, our practice transitioned from ordering routine chest radiography after chest tube removal and at the first postoperative clinic visit to obtaining imaging based on symptomatology. The primary outcome was changes in management from results of chest radiography obtained routinely versus for symptoms. Characteristics and outcomes were compared using the Student t test and chi-square analyses. RESULTS: A total of 322 patients met inclusion criteria. Ninety-three patients underwent a routine same-day post-pull chest radiography, and 229 patients did not. Thirty-three patients (14.4%) in the nonroutine chest radiography cohort received imaging for symptoms, in whom 8 (24.2%) resulted in management changes. Only 3.2% of routine post-pull chest radiography resulted in management changes versus 3.5% of unplanned chest radiography with no adverse outcomes (P = .905). At outpatient postoperative follow-up, 146 patients received routine chest radiography; none resulted in a change in management. Of the 176 patients who did not have planned chest radiography at follow-up, 12 (6.8%) underwent chest radiography for symptoms. Two of these patients required readmission and chest tube reinsertion. CONCLUSIONS: Reserving imaging for patients with symptoms after chest tube removal and follow-up after elective lung resections resulted in a higher percentage of meaningful changes in clinical management.

Interfacility Transport of Children with Traumatic Pneumothorax: Does Elevation Make a Difference?

INTRODUCTION: Traumatic pneumothorax (PTX) remains a source of significant morbidity and mortality in pediatric trauma patients. Management with tube thoracostomy is routinely dictated by symptoms, use of positive pressure ventilation, or plan for air transport. Many patients transferred to our pediatric trauma center (PTC) require transport at considerable elevation. We sought to characterize the effect of transport at elevation in this population to inform management recommendations. METHODS: The trauma registry was queried for pediatric patients transferred to our tertiary referral center with traumatic PTX from 2010 to 2022, yielding 412 charts for analysis. Data abstracted included mechanism of injury, mode of transport, size of pneumothorax, chest tube placement, endotracheal intubation, and estimated elevation change during transport. RESULTS: There were 412 patients included for analysis. Most patients had small pneumothoraces that resolved without chest tube placement (388 patients, 94.1%). No patients experienced acute respiratory decompensation in transport. There were four (0.9%) patients with increased PTX on arrival, however, none experienced acute decompensation as a result. Average elevation gain was 2337 feet. There was no association between elevation change and requirement of post-transport chest tube placement. No patients experienced PTX-related complications after discharge. CONCLUSIONS: In this large patient series, no patient experienced a meaningful increase in the size of their traumatic PTX during or immediately following transport at elevation to our institution. These findings suggest it is safe to transfer a pediatric trauma patient with a small, hemodynamically insignificant PTX without tube thoracostomy despite considerable changes in elevation during transport. LEVELS OF EVIDENCE: II-III, Retrospective Study.

[Postoperative Complications of Open Window Thoracostomy:Report of a Case].

While open window thoracostomy is used to treat empyema with a high rate of infection control, it is an invasive procedure that leads to a decline in the quality of life. An 80-year-old man who had undergone wedge resection for pulmonary nodules subsequently developed postoperative empyema and underwent open window thoracostomy. After thoracostomy, the patient developed several complications, including bleeding from the lung surface and air leakage. Window closure was planned at this time;however, the plan was scuttled due to his low nutritional status and pulmonary air leakage. After the patient's condition improved with persistent conservative treatment, window closure was performed, and he overcame his complications. Patients with postoperative empyema requiring thoracostomy are at a high risk of developing postoperative complications. Therefore, it is important to manage the patients' condition persistently so that they can receive window closure at an appropriate time.

Safety and Risk Factors of Needle Thoracentesis Decompression in Tension Pneumothorax in Patients over 75 Years Old.

Background: There are very few professional recommendations or guidelines on the needle thoracentesis decompression (NTD) for the tension pneumothorax in the elderly. This study aimed to investigate the safety and risk factors of tension pneumothorax NTD in patients over 75 years old based on CT evaluation of the chest wall thickness (CWT). Methods: The retrospective study was conducted among 136 in-patients over 75 years old. The CWT and closest depth to vital structure of the second intercostal space at the midclavicular line (second ICS-MCL) and the fifth intercostal space at the midaxillary line (fifth ICS-MAL) were compared as well as the expected failure rates and the incidence of severe complications of different needles. We also analyzed the influence of age, sex, presence or absence of chronic obstructive pulmonary disease (COPD), and body mass index (BMI) on CWT. Results: The CWT of the second ICS-MCL was smaller than the fifth ICS-MAL both on the left and the right side (P < 0.05). The success rate associated with a 7 cm needle was significantly higher than a 5 cm needle (P < 0.05), and the incidence of severe complications with a 7 cm needle was significantly less than an 8 cm needle (P < 0.05). The CWT of the second ICS-MCL was significantly correlated with age, sex, presence or absence of COPD, and BMI (P < 0.05), whereas the CWT of the fifth ICS-MAL was significantly correlated with sex and BMI (P < 0.05). Conclusion: The second ICS-MCL was recommended as the primary thoracentesis site and a 7 cm needle was advised as preferred needle length for the older patients. Factors such as age, sex, presence or absence of COPD, and BMI should be considered when choosing the appropriate needle length.

Risk of Harm in Needle Decompression for Tension Pneumothorax.

INTRODUCTION: Tension pneumothorax (TPX) is the third most common cause of preventable death in trauma. Needle decompression at the fifth intercostal space at anterior axillary line (5th ICS AAL) is recommended by Tactical Combat Casualty Care (TCCC) with an 83-mm needle catheter unit (NCU). We sought to determine the risk of cardiac injury at this site. METHODS: Institutional data sets from two trauma centers were queried for 200 patients with CT chest. Inclusion criteria include body mass index of =30 and age 18-40 years. Measurements were taken at 2nd ICS mid clavicular line (MCL), 5th ICS AAL and distance from the skin to pericardium at 5th ICS AAL. Groups were compared using Mann-Whitney U and chi-squared tests. RESULTS: The median age was 27 years with median BMI of 23.8 kg/m2. The cohort was 69.5% male. Mean chest wall thickness at 2nd ICS MCL was 38-mm (interquartile range (IQR) 32-45). At 5th ICS AAL, the median chest wall thickness was 30-mm (IQR 21-40) and the distance from skin to pericardium was 66-mm (IQR 54-79). CONCLUSION: The distance from skin to pericardium for 75% of patients falls within the length of the recommended needle catheter unit (83-mm). The current TCCC recommendation to "hub" the 83mm needle catheter unit has potential risk of cardiac injury.

A Novel Device With Improved Outcomes for Tube Thoracostomy.

INTRODUCTION: Tube thoracostomy is a common procedure for which competency is expected of all trauma providers, both surgical and nonsurgical. Although surgery residents have fewer complications than other resident specialties, complications relating to position and insertion are reported. We hypothesized the use of our novel chest tube placement device will improve chest tube placement efficiency while maintaining accuracy compared to the open Kelly clamp technique across multiple specialties. METHODS: A swine lab was conducted through an approved Institutional Animal Care and Use Committee device testing protocol. After a preprocedure, tutorial participants placed chest tubes with the device and Kelly clamps through predetermined incision sites. Placement positioning was determined by a postplacement chest X-ray. One way analysis of variance was used for intratechnique comparisons. Time to placement was compared using paired t-test; P- values of <0.05 were considered significant. RESULTS: Intrathoracic device placement occurred with 94.4% (N = 68) of placements compared to 93.1% (N = 67) of Kelly clamp placements (P = 0.73). The device-placed chest tubes were apically positioned 94.4% (N = 68) compared to 66.7% (N = 48) (P < 0.01) of Kelly clamp-placed chest tubes. Novel device use chest tube placement was significantly faster with a mean time of 39.3 (±27.7) s compared to 61.5 (±38.6) s for the Kelly clamp (P < 0.01). CONCLUSIONS: In this proof of concept study, our chest tube placement device improved efficiency and accuracy in chest tube placement when compared to the open Kelly clamp technique. This finding was consistent across thoracic trauma providers, including general surgery residents.

A Narrative Review of Traumatic Pneumothorax Diagnoses and Management.

BACKGROUND: Correct identification and rapid intervention of a traumatic pneumothorax is necessary to avoid hemodynamic collapse and subsequent morbidity and mortality. The purpose of this clinical review is to summarize the evaluation and best treatment strategies to improve outcomes in combat casualties. Blunt, explosive, and penetrating trauma are the 3 etiologies for causing a traumatic pneumothorax. Blunt trauma tends to be more common, but all etiologies require similar treatment. The current standard to diagnose pneumothorax is through imaging to include ultrasound, chest x-ray, or computed tomography. A physical exam aids in the diagnosis especially when few other resources are available. Recent studies on the treatment of a small, closed pneumothorax involve conservative care, which includes close observation of the patient and monitoring supplemental oxygen. For a large, closed pneumothorax, conservative treatment is still a possible option, but manual aspiration may be required. Less often, a needle or tube thoracostomy is needed to reinflate the lung. Large, open pneumothoraxes require the most invasive treatment with current guidelines recommending tube thoracostomy. More invasive management options can result in higher rates of complications. Given the significant variability in practice patterns, most notable in resource limited settings, the areas for potential research are presented.

The Volume of Thoracic Irrigation Is Associated With Length of Stay in Patients With Traumatic Hemothorax.

INTRODUCTION: Irrigation of the thoracic cavity at tube thoracostomy (TT) placement may decrease the rate of a retained hemothorax (RHTX); however, other resource utilization outcomes have not yet been quantified. This study evaluated the association of thoracic irrigation during TT with the length of stay and outcomes in patients with traumatic hemothorax (HTX). METHODS: A retrospective chart review was performed of adult patients receiving a TT for HTX at a single, urban Level 1 Trauma Center from January 2019 to December 2020. Those who underwent irrigation during TT at the discretion of the trauma surgeon were compared to a control of standard TT without irrigation. Death within 30 d, as well as TTs, placed at outside hospitals, during traumatic arrest or thoracic procedures, and for isolated pneumothoraces were excluded. The primary outcome was the length of stay as hospital-free, ICU-free, and ventilator-free days (30-day benchmark). Subgroup analysis by irrigation volume was conducted using one-way ANOVA testing with P < 0.05 considered statistically significant. RESULTS: Eighty-two (41.4%) of 198 patients underwent irrigation during TT placement. Secondary interventions, thoracic infections, and TT duration were not statistically different in the irrigated cohort. Hospital-free and ICU-free days were higher in the irrigated patients than in the controls. Groups irrigated with ≥1000 mL had significant more hospital-free days (P = 0.007) than those receiving less than 1000 mL. CONCLUSIONS: Patients with traumatic HTX who underwent thoracic irrigation at the time of TT placement had decreased hospital and ICU days compared to standard TT placement alone. Specifically, our study demonstrated that patients irrigated with a volume of at least 1000 mL had greater hospital-free days compared to those irrigated with less than 1000 mL.

Surgical outcomes and the factors affecting lung expansion following open window thoracostomy in chronic tuberculous empyema with destroyed lung.

BACKGROUND: Patients with chronic tuberculous empyema and destroyed lung on a prolonged intercostal tube with failed lung expansion considered unsuitable for single-lung ventilation have poor outcomes. The study's objective was to analyze the surgical outcomes and lung expansion factors in these patients following the open window thoracostomy (OWT) procedure. METHODS: In a prospective study, patients (males = 63, females = 12) diagnosed with tuberculosis who underwent OWT were analyzed between 2017 and 2018. Factors including age, sex, side, comorbidities, body mass index (BMI), bacteriological culture, and patency of OWT site were evaluated for lung expansion. RESULTS: Mean preoperative weight 40.96 ± 5.70 kg increased significantly postoperatively. Pseudomonas aeruginosa (30.66%) was the most typical organism isolated and smoking (21.3%) was the common risk factor. At 6-month follow-up, complete lung expansion was noted in 60% of patients, while partial and no expansion is seen in 17.3% and 22.3% patients. Similarly 82.4% patients with pre-operative BMI>18.5 kg/m2 had complete lung expansion, while with BMI < 18.5 kg/m2, 41.7% and 45.8% had partial and no-expansion. Complete lung expansion was seen in 97.1%, 18.2%, and 23.1% of patients with obliterated OWT, sputum, and pleural pus positive for acid-fast bacilli (active disease), while in 57.9% of patients with comorbidities, complete lung expansion was absent. CONCLUSION: The analysis of various factors concludes that lung expansion is not affected by age, sex, side of the disease, and co-morbid conditions; however, extensively diseased lungs with low BMI and positive bacteriological culture, especially P. aeruginosa, active disease, smoking, and patent OWT, interfered with the expansion of the lung.

THE EFFECT OF COVID-19 VACCINES ON PNEUMOTHORAX IN GERIATRIC PATIENTS HOSPITALIZED IN INTENSIVE CARE UNIT DUE TO COVID-19.

In our study, we examined the effect of COVID-19 vaccination on the incidence of pneumothorax in intensive care patients over age 65. COVID-19 intensive care patients that presented to our department between April 2020 and May 2021 during the COVID-19 pandemic were evaluated retrospectively. Patients were divided into two main groups, i.e., before and after the vaccination period. Patients were evaluated retrospectively for the following parameters: gender, age, side of pneumothorax, mortality, discharge, comorbidity, and additional pleural complications. The total number of patients was 87, i.e., 66 patients before vaccination and 21 patients after vaccination. When patients in the pre- and post-vaccination period were compared, there was a significant difference in the incidence of pneumothorax between the two groups (p<0.05). Pneumothorax was less common after vaccination. When patients with pneumothorax and tube thoracostomy were evaluated according to pre- and post-vaccination mortality, mortality was significantly higher (89%) in the pre-vaccination period (p<0.05). We consider that COVID-19 vaccines used in patients aged over 65 reduced the incidence of pleural complications, especially pneumothorax. We think that mortality due to pneumothorax in patients over 65 years of age was lower during the vaccination period. In addition, we think that bilateral pneumothorax was more common in the non-vaccinated period. As a result, we think that life-threatening pneumothorax and similar complications could be reduced by increasing the number of vaccines made in the COVID-19 pandemic and spreading it around the world.

Observational management of penetrating occult pneumothoraces: Outcomes and risk factors for interval tube thoracostomy placement.

BACKGROUND: Guidelines for penetrating occult pneumothoraces (OPTXs) are based on blunt injury. Further understanding of penetrating OPTX pathophysiology is needed. In observational management of penetrating OPTX, we hypothesized that specific clinical and radiographic features may be associated with interval tube thoracostomy (TT) placement. Our aims were to (1) describe OPTX occurrence in penetrating chest injury, (2) determine the rate of interval TT placement in observational management and clinical outcomes compared with immediate TT placement, and (3) describe risk factors associated with failure of observational management. METHODS: Penetrating OPTX patients presenting to our level 1 trauma center from 2004 to 2019 were reviewed. Occult pneumothorax was defined as a pneumothorax on chest computed tomography but not on chest radiograph. Patient groups included immediate TT placement versus observation. Clinical outcomes compared were TT duration and complications, need for additional thoracic procedures, length of stay (LOS), and disposition. Clinical and radiographic factors associated with interval TT placement were determined by multivariable regression. RESULTS: Of 629 penetrating pneumothorax patients, 103 (16%) presented with OPTX. Thirty-eight patients underwent immediate TT placement, and 65 were observed. Twelve observed patients (18%) needed interval TT placement. Regardless of initial management strategy, TT placement was associated with longer LOS and more chest radiographs. Chest injury complications and outcomes were similar. Factors associated with increased odds of interval TT placement included Chest Abbreviated Injury Scale score of ≥4 (adjusted odds ratio [aOR], 7.38 [95% confidence interval, 1.43-37.95), positive pressure ventilation (aOR, 7.74 [1.07-56.06]), concurrent hemothorax (aOR, 6.17 [1.08-35.24]), and retained bullet fragment (aOR, 11.62 [1.40-96.62]) (all p < 0.05). CONCLUSION: The majority of patients with penetrating OPTX can be successfully observed with improved clinical outcomes (LOS, avoidance of TT complications, reduced radiation). Interval TT intervention was not associated with risk for adverse outcomes. In patients undergoing observation, specific clinical factors (chest injury severity, ventilation) and imaging features (hemothorax, retained bullet) are associated with increased odds for interval TT placement, suggesting need for heightened awareness in these patients. LEVEL OF EVIDENCE: Prognostic, level IV.

Management of spontaneous pneumothorax in patients with COVID-19.

OBJECTIVES: The coronavirus disease 2019 (COVID-19) pneumonia may cause cystic features of lung parenchyma which can resolve or progress to larger blebs. Pneumothorax was more likely in patients with neutrophilia, severe lung injury and a prolonged clinical course. The timely diagnosis and management will reduce COVID-19-associated morbidity and mortality. METHODS: We present 11 cases of spontaneous pneumothorax managed with chest tube thoracostomy or high-dose oxygen therapy. Isolated spontaneous pneumothorax was detected in all cases. RESULTS: Eight cases were male and 3 cases were female. There were bilateral ground-glass opacities or pulmonary infiltrates in the parenchyma of the 10 cases. We detected neutrophilia, lymphopaenia and increased C-reactive protein, Ferritin, lactate dehydrogenase, D-Dimer, interleukin-6 levels in almost all cases. Chest tube thoracostomy was sufficient to treat pneumothorax in our 9 of case. In 2 cases, pneumothorax healed with high-dose oxygen therapy. Favipiravir and antibiotic treatment were given to different 10 patients. In our institution, all patients with COVID-19 infection were placed on prophylactic or therapeutic anticoagulation, unless contraindicated. The treatments of patients diagnosed with secondary spontaneous pneumothorax during the pandemic period and those diagnosed with secondary spontaneous pneumothorax in the previous 3 years were compared with the durations of tube thoracostomy performed in both groups. CONCLUSIONS: The increased number of cases of pneumothorax suggests that pneumothorax may be a complication of COVID-19 infection. During medical treatment of COVID-19, pneumothorax may be the only reason for hospitalization. Although tube thoracostomy is a sufficient treatment option in most cases, clinicians should be aware of the difficulties that may arise in diagnosis and treatment.

Incidence, Management, and Outcomes of Patients With COVID-19 and Pneumothorax.

BACKGROUND: Our objective was to report the incidence, management, and outcomes of patients who developed a secondary pneumothorax while admitted for coronavirus disease 2019 (COVID-19). METHODS: A single-institution, retrospective review of patients admitted for COVID-19 with a diagnosis of pneumothorax between March 1, 2020, and April 30, 2020, was performed. The primary assessment was the incidence of pneumothorax. Secondarily, we analyzed clinical outcomes of patients requiring tube thoracostomy, including those requiring operative intervention. RESULTS: From March 1, 2020, to April 30, 2020, 118 of 1595 patients (7.4%) admitted for COVID-19 developed a pneumothorax. Of these, 92 (5.8%) required tube thoracostomy drainage for a median of 12 days (interquartile range 5-25 days). The majority of patients (95 of 118, 80.5%) were on mechanical ventilation at the time of pneumothorax, 17 (14.4%) were iatrogenic, and 25 patients (21.2%) demonstrated tension physiology. Placement of a large-bore chest tube (20 F or greater) was associated with fewer tube-related complications than a small-bore tube (14 F or less) (14 vs 26 events, P = .011). Six patients with pneumothorax (5.1%) required operative management for a persistent alveolar-pleural fistula. In patients with pneumothorax, median hospital stay was 36 days (interquartile range 20-63 days) and in-hospital mortality was significantly higher than for those without pneumothorax (58% vs 13%, P < .001). CONCLUSIONS: The incidence of secondary pneumothorax in patients admitted for COVID-19 is 7.4%, most commonly occurring in patients requiring mechanical ventilation, and is associated with an in-hospital mortality rate of 58%. Placement of large-bore chest tubes is associated with fewer complications than small-bore tubes.

Thoracostomy Tube Removal in Pediatric Trauma: Film or No Film?

BACKGROUND: Use of routine chest x-rays (CXR) following thoracostomy tube (TT) removal is highly variable and its utility is debated. We hypothesize that routine post-pull chest x-ray (PP-CXR) findings following TT removal in pediatric trauma would not guide the decision for TT reinsertion. METHODS: Patients ≤ 18 y who were not mechanically ventilated and undergoing final TT removal for a traumatic hemothorax (HTX) and/or pneumothorax (PTX) at a level I pediatric trauma center from 2010 to 2020 were retrospectively reviewed. The outcomes of interest were rate of PP-CXR and TT reinsertion rate following PP-CXR. Clinical predictors for worsened findings on PP-CXR were also assessed. RESULTS: Fifty-nine patients were included. A CXR after TT removal was performed in 57 patients (97%), with 28% demonstrating worsened CXR findings compared to the prior film. Except for higher ISS (p = 0.033), there were no demographic or clinical predictors for worsened CXR findings. However, they were more likely to have additional films following the TT removal (p = 0.008) than those with stable or improved PP-CXR findings. One (1.8%) asymptomatic child with worsened PP-CXR findings had TT reinsertion based purely on their worsened PP-CXR findings. CONCLUSIONS: The vast majority of PP-CXR did not guide TT reinsertion after pediatric thoracic trauma. Treatment algorithms may aid to reduce variability and potentially unnecessary routine films.

The efficacy of the use of presumptive antibiotics in tube thoracostomy in thoracic trauma-results of a meta-analysis.

INTRODUCTION: The purpose of this study was to determine the impact of presumptive antibiotics, used in chest traumas requiring thoracostomies, in preventing infections such as empyema and pneumonia. METHODS: According to PRISMA guidelines, a systematic search of PubMed, Embase and Cochrane Library databases was conducted by two independent reviewers. Studies evaluating the role of antibiotics were included. RESULTS: Antibiotic administration was associated with a lower incidence of overall infectious complications (OR:0.6, 95%CI: 0.43 to 0.84, p = 0.003). Subgroup analysis revealing that the best protective effect against empyema (OR:0.35, 95%CI to 0.65, p = 0.001). When stratified by trauma type, antibiotic use was protective in penetrating injuries, against empyema (OR:0.14, 95%CI: 0.04 to 0.47, p = 0.001) and pneumonia (OR:0.24, 95%CI:, 0.12 to 0.53, p = 0.001) while there was no protective effect in blunt trauma against empyema (OR:0.25 95%CI: 0.03 to 1.73, p = 0.16) or pneumonia (OR:1.22, 95%CI: 0.38 3.90, p = 0.72). CONCLUSION: Presumptive antibiotic use in thoracostomies has a clear role in preventing infectious complications in trauma patients. This role is primarily attributed to their protective effect on penetrating trauma patients.

Short and long-term outcomes of surgical intervention for empyema in the post-fibrinolytic era.

BACKGROUND: Open window thoracostomy (OWT) is indicated for patients with bronchopleural fistula (BPF) or trapped lung in the setting of empyema refractory to non-surgical interventions. We investigated the role of OWT in the era of minimally invasive surgeries, endobronchial valves and fibrinolytic therapy. METHODS: A retrospective chart review of all patients who underwent OWT at a single institution from 2010 to 2020 was performed. Indications for the procedure as well as operative details and morbidity and mortality were evaluated to determine patient outcomes for OWT. RESULTS: Eighteen patients were identified for the study. The most common indication for OWT was post-resectional BPF (n = 9). Prior to OWT, n = 11 patients failed other surgical or minimally invasive interventions. Patient comorbidities were quantified with the Charlson Comorbidity index (n = 11 score ≥ 5, 10-year survival ≤21%). Three (16.7%) patients died < 30 days post-operatively and 12 (66%) patients were deceased by the study's end (overall survival 24.0 ± 32.2 months). Mean number of ribs resected were 2.5 ± 1.2 (range 1-6) with one patient having 6 ribs removed. Patients were managed with negative pressure wound therapy (n = 9) or Kerlix packing (n = 9). Eleven patients (61.6%) underwent delayed closure (mean time from index surgery to closure 4.8 ± 6.7 months). CONCLUSIONS: Our study illustrates the significant comorbidities of patients undergoing OWT, the poor outcomes therein, and pitfalls associated with this procedure. We show that negative pressure wound therapy can be utilized as potential way to obliterate the pleural space and manage an open chest in the absence of an airleak; however, OWT procedures continue to be extremely morbid.