Multisociety research collaboration: timing of cholecystectomy following cholecystostomy drainage for acute cholecystitis.

BACKGROUND: Patients with acute cholecystitis (AC) presenting with unfavorable systemic or local conditions are often managed with percutaneous cholecystostomy (PC) as a temporary measure. The clinical outcomes of interval cholecystectomy following PC remain unclear. The aim of the study was to identify the association between the timing of cholecystectomy following PC for AC and perioperative complication rates at interval cholecystectomy. We hypothesized that there would be a specific time interval to cholecystectomy associated with lower risk for adverse events. METHODS: This was a retrospective (2018-2020) multicenter study at 8 participating hospital systems of adult patients with AC, managed with PC and interval cholecystectomy. Demographics, comorbidities, treatment details, and outcomes were examined. Patients were grouped based on quartiles for timing of surgery after PC (< 7, 7-9, 10-13, > 13 weeks). The primary outcome was a composite endpoint of bile duct injury, reoperation, readmission, image-guided intervention, endoscopic intervention, conversion to open surgery, or death. RESULTS: There were 188 patients with a median age of 66 years with AC classified as mild (41%), moderate (47%), and severe (12%). Median days from PC to surgery were 65 (Q1 = 48, Q3 = 91). Laparoscopic cholecystectomy (89.9%) was the most commonly planned approach (robotic 6.4%, 3.7% open) and 28 (14.9%) were converted to open. The composite endpoint was reported in 51 patients (27.1%). A biliary injury occurred in 7 (3.7%) patients. Time to surgery and intraoperative drain placement were independently associated with the composite outcome. Cholecystectomy within 7 weeks of PC was associated with decreased risk (OR = 0.36, 95% CI 0.13-0.97) of the composite endpoint, compared to patients undergoing surgery > 13 weeks after PC. CONCLUSION: Timing of surgery following PC was associated with procedural outcomes. Patients undergoing surgery before 7 weeks experienced significantly less morbidity than patients having delayed cholecystectomy. These results should be considered in patient selection and management after PC.

Role of endovascular management on outcomes in patients with traumatic inferior vena cava injuries.

INTRODUCTION: The aim of this study was to examine the association between the injury mechanism and repair type with outcomes in patients with traumatic inferior vena cava injuries. METHODS: This is a retrospective analysis of the ACS-TQIP database (2017-2020), including patients with traumatic IVC injuries. Patients were stratified by injury mechanism and type of repair and compared. RESULTS: Out of 1334 patients, 5 â€‹% underwent endovascular repair while 95 â€‹% had an open procedure. Overall, 74.7 â€‹% sustained a penetrating injury. On multivariable regression analysis, the type of repair was not associated with mortality and morbidity for patients with penetrating injuries. However, among patients with blunt injuries, endovascular repair was associated with lower odds of in-hospital mortality (aOR:0.35, p â€‹= â€‹0.020) and non-venous thromboembolism (VTE) morbidity (aOR:0.41, p â€‹= â€‹0.015), and higher odds of VTE complications (aOR:6.74, p â€‹< â€‹0.001). CONCLUSIONS: Although the type of repair did not impact morbidity and mortality in patients with penetrating injuries, endovascular repair was identified as the only modifiable predictor of reduced non-VTE morbidity and mortality in patients with blunt injuries.

Obesity is a predictor of abdominal computed tomography imaging in pediatric trauma patients.

BACKGROUND: Computed tomography (CT) has helped to reduce the morbidity due to missed injuries. However, CT imaging is associated with radiation exposure and thus has limited indications in pediatric patients. In this study, we aimed to identify the association between obesity and abdominal CT imaging in pediatric trauma patients. METHODS: We performed a 4-year retrospective analysis of the American College of Surgeons Trauma Quality Improvement 2017-2020. We identified all pediatric trauma patients aged between 7 and 17 years presenting with isolated abdominal trauma (nonabdominal Abbreviated Injury Scale score, 0). We excluded patients undergoing hemorrhage control surgeries and those with missing information in height and weight. Patients were stratified by body mass index into four groups (underweight, normal, overweight, and obese [body mass index, ≥30 kg/m2]). Outcomes were predictors of undergoing CT imaging of the abdomen. Descriptive statistics and multivariable logistic regression analyses were performed. RESULTS: We identified a total of 10,204 pediatric trauma patients. The mean age was 13 years, 68% were male, and 77% were White. The median abdominal Abbreviated Injury Scale score in all the four groups was 2. On univariate analysis, underweight patients had lowest rates (25%), whereas obese patients had highest rates of CT imaging (38%) (p < 0.001). On multivariable regression analysis, increasing age (adjusted odds ratio [aOR], 1.08; 95% confidence interval [CI], 1.06-1.10; p < 0.001), male sex (aOR, 1.14; 95% CI, 1.03-1.26; p = 0.009), White race (aOR, 0.84; 95% CI, 0.76-0.92; p < 0.011), penetrating injury (aOR, 1.16; 95% CI, 1.03-1.32; p = 0.017), obesity (aOR, 1.30; 95% CI, 1.07-1.57; p = 0.008), and management at American College of Surgeons level II (aOR, 1.63; 95% CI, 1.44-1.85; p < 0.001) and level III or lower centers (aOR, 1.17; 95% CI, 1.06-1.26; p = 0.002) were identified as independent predictors of receiving CT imaging. CONCLUSION: Obesity is associated with increased odds of undergoing CT imaging in pediatric trauma patients independent of injury characteristics. Future efforts to define the appropriate indications for CT imaging in pediatric trauma patients are warranted to reduce the adverse effects of CT radiation. LEVEL OF EVIDENCE: Prognostic and Epidemiological; Level III.

The Harsh Reality: Outcomes of Patients With Operatively Managed Lung Injuries.

INTRODUCTION: Most traumatic lung injuries are managed non-operatively. There is a paucity of recent data on the outcomes of operatively managed lung injuries. The aim of our study is to determine the survival rates of operatively managed traumatic lung injury patients on a nationwide scale. METHODS: We performed a retrospective analysis of the ACS-TQIP 2017-2020. We included all adult trauma patients with lung injuries that underwent operative management. Patients were stratified based on type of surgery into 3 groups (wedge resection, lobectomy, pneumonectomy). The outcome was mortality. Multivariable logistic regression analysis was performed to identify the independent predictors of mortality. RESULTS: We identified a total of 170,377 patients with lung injuries, out of which 2159 (1.3%) patients underwent operative management (Wedge resection [61%], Lobectomy [31%], Pneumonectomy [8%]). Among operatively managed patients, the mean (SD) age was 37 (16) years, and 86% were male. Overall, 65% sustained penetrating injuries, with a median [IQR] ISS of 25 [16 - 33], and median [IQR] lung injury AIS severity of 4 [3 - 4]. About 7% of the patients suffered hilar injuries. The mean (SD) SBP on arrival was 108 (43) and the median [IQR] time to surgery was 177 [52 - 5351] minutes. The median hospital LOS was 10 [1 - 19] days, and overall mortality rate was 30%. On univariate analysis, patients undergoing pneumonectomy had the highest mortality (54%), followed by lobectomy (33%), and wedge resection (25%). On multivariable regression analysis, hilar injuries (aOR 1.9, 95%CI = 1.06 - 2.80, P = 0.029), increasing age (aOR 1.02, 95%CI = 1.01 - 1.03, P = 0.001), concomitant head (aOR 1.34, 95%CI = 1.22 - 1.47, P < 0.001) and abdominal injuries (aOR 1.42, 95%CI = 1.31 - 1.54, P < 0.001) were independent predictors of mortality. CONCLUSIONS: Nearly 1 in 3 patients with lung injuries who were managed operatively did not survive their index admission. These findings highlight that operatively managed lung injuries still carry a high risk of mortality and should be reserved for selected patients. The decision for surgery in patients with concomitant head or abdominal injuries must be taken on a case-to-case basis.

When Every Minute Counts: REBOA Before Surgery Is Independently Associated With a 15-Minute Delay in Time to Definitive Hemorrhage Control.

INTRODUCTION: Resuscitative endovascular balloon occlusion of the aorta (REBOA) is a temporizing hemorrhage control intervention, but its inevitable effect on time to operating room (OR) has not been assessed. The aim of our study is to assess the impact of undergoing REBOA before surgery (RBS) on time to definitive hemorrhage control surgery. METHODS: In this retrospective analysis of 2017-2021 ACS-TQIP database, all adult (≥18 years) patients who underwent emergency hemorrhage control laparotomy (≤4 hours of admission) and received early blood products (≤4 hours) were included, and patients with severe head injury (Head-abbreviated injury score > 2) were excluded. Patients were stratified into those who did (RBS) vs those who did not undergo REBOA before surgery (No-RBS). Primary outcome was time to laparotomy. Secondary outcomes were complications and mortality. Multivariable linear and binary logistic regression analyses were performed to identify the independent associations between RBS and outcomes. RESULTS: A total of 32,683 patients who underwent emergency laparotomy were identified (RBS: 342; No-RBS: 32,341). The mean age was 39 (16) years, 78% were male, mean SBP was 107 (34) mmHg, and the median injury severity score was 21 [14-29]. The median time to emergency hemorrhage control surgery was 50 [32-85] minutes. Overall complication rate was 16% and mortality was 19%. On univariate analysis, RBS group had longer time to surgery (RBS 56 [41-89] vs No-RBS 50 [32-85] minutes, P < 0.001). On multivariable analysis, RBS was independently associated with a longer time to hemorrhage control surgery (ß + 14.5 [95%CI 7.8-21.3], P < 0.001), higher odds of complications (aOR = 1.72, 95%CI = 1.27-2.34, P < 0.001), and mortality (aOR = 3.42, 95%CI = 2.57-4.55, P < 0.001). CONCLUSION: REBOA is independently associated with longer time to OR for hemorrhaging trauma patients with an average delay of 15 minutes. Further research evaluating center-specific REBOA volume and utilization practices, and other pertinent system factors, may help improve both time to REBOA as well as time to definitive hemorrhage control across US trauma centers. LEVEL OF EVIDENCE: III. STUDY TYPE: Epidemiologic.

Final Lifelines: The Implications and Outcomes of Thoracic Damage Control Surgeries.

INTRODUCTION: There is a lack of data on the outcomes of thoracic damage control surgery (TDCS). This study aimed to describe the characteristics and outcomes of patients undergoing TDCS. METHODS: This is a retrospective analysis of the American College of Surgeons-Trauma Quality Improvement Program database (2017-2021). All trauma patients who underwent emergency thoracotomy and packing with temporary closure were included. Patients were stratified based on the age groups (pediatric [<18 y], adults [18-64 y], and older adults [≥65 y]). Our primary outcome measures included 6-h, 24-h, and in-hospital mortality. Secondary outcomes were major complications. RESULTS: We identified 14,192 thoracotomies, out of which 213 underwent TDCS (pediatric [n = 17], adults [n = 175], and older adults [n = 21]). The mean (SD) age was 37 (18), and 86% were male. The mean shock index was 1.1 (0.4) on presentation with a median [IQR] Glasgow Coma Scale of 4 [3-14], and 22.1% had a prehospital cardiac arrest. The study population was profoundly injured with a median injury severity scoreand chest-abbreviated injury scale of 26 [17-38] and 4 [3-5], respectively, with lung (76.5%) being the most injured intrathoracic organs. Overall, the rates of 6-h, 24-h, and in-hospital mortality were 22.5%, 33%, and 53%, respectively, and 51% developed major complications. There was no significant difference in terms of in-hospital mortality (P = 0.800) and major complications (0.416) among pediatrics, adults, and older adults. CONCLUSIONS: One in three patients undergoing TDCS die within the first 24 h, and more than half of them develop major complications and die in the hospital, with no difference among pediatric, adults, and older adults. Future efforts should be directed to improve the survival of these severely injured, metabolically depleted, challenging patients.

Less Is More: Dissecting Trauma Centers by Procedural Volume.

OBJECTIVE: This study aims to examine the relationship between procedural volume and annual trauma volume (ATV) of ACS Level I trauma centers (TC). BACKGROUND: Although ATV is a hard criterion for TC verification, importance of procedural interventions as a potential quality indicator is understudied. METHODS: Patients managed at ACS level I TCs were identified from ACS-TQIP 2017-2021. TCs were identified using facility keys and stratified into quartiles based on ATV into low, low-medium, medium-high, and high volume. TCs were also stratified into tertiles [low (LV), medium (MV), high (HV)] based on procedural volume by assessing annual number of laparotomies, thoracotomies, craniotomies/craniectomies, angioembolizations, vascular repairs, and long bone fixations performed at each center. The Cohen κ statistic was used to assess concordance between ATV and procedural volume. RESULTS: A total of 182 Level I TCs were identified: 76 low, 47 low-medium, 35 high-medium, and 24 high volume. Long bone fixation, laparotomy, and craniotomy/craniectomy were the most performed procedures with a median of 65, 59, and 46 cases/center/year, respectively. Overall, 31% of HV laparotomy centers, 31% of HV thoracotomy centers, 22% of HV craniotomy/craniectomy centers, 22% of HV vascular repair centers, 32% of HV long bone fixation centers, and 33% of HV angioembolization centers contributed to the overall number of low-medium and low-volume TCs. The Cohen κ statistic demonstrated poor concordance between ATV and procedural volumes for all procedures (overall procedural volume-κ=0.378, laparotomy-κ=0.270, thoracotomy-κ=0.202, craniotomy/craniectomy-κ=0.394, vascular repair-κ=0.298, long bone fixation-κ=0.277, angioembolization-κ=0.286). CONCLUSIONS: ATV does not reflect the procedural interventions performed. Combination of procedural and ATV may provide a more accurate picture of the clinical experience at any given TC. LEVEL OF EVIDENCE: Level III.

Predicting the time of mortality among older adult trauma patients: Is frailty the answer?

INTRODUCTION: This study aims to evaluate the temporal trends of mortality among frail versus non-frail older adult trauma patients during index hospitalization. METHODS: We performed a 3-year (2017-2019) analysis of ACS-TQIP. We included all older adult (age ≥65 years) trauma patients. Patients were stratified into two groups (Frail vs. Non-Frail). Outcomes were acute (<24 â€‹h), early (24-72 â€‹h), intermediate (72 hours-1 week), and late (>1 week) mortality. RESULTS: A total of 1,022,925 older adult trauma patients were identified, of which 19.7 â€‹% were frail. The mean(SD) age was 77(8) years and 57.4 â€‹% were female. Median[IQR] ISS was 9[4-10] and both groups had comparable injury severity (p â€‹= â€‹0.362). On multivariable analysis, frailty was not associated with acute (aOR 1.034; p â€‹= â€‹0.518) and early (aOR 1.190; p â€‹= â€‹0.392) mortality, while frail patients had independently higher odds of intermediate (aOR 1.269; p â€‹= â€‹0.042) and late (aOR 1.835; p â€‹< â€‹0.001) mortality. On sub-analysis, our results remained consistent in mild, moderate, and severely injured patients. CONCLUSION: Frailty is an independent predictor of mortality in older adult trauma patients who survive the initial 3 days of admission, regardless of injury severity.

Surgical stabilization of rib fractures: The impact of volume and the need for standardized indications.

INTRODUCTION: We aimed to examine impact of trauma center (TC) surgical stabilization of rib fracture (SSRF) volume on outcomes of patients undergoing SSRF. METHODS: Blunt rib fracture patients who underwent SSRF were included from ACS-TQIP2017-2021. TCs were stratified according to tertiles of SSRF volume:low (LV), middle, and high (HV). Outcomes were time to SSRF, respiratory complications, prolonged ventilator use, mortality. RESULTS: 16,872 patients were identified (LV:5470,HV:5836). Mean age was 56 years, 74% were male, median thorax-AIS was 3. HV centers had a lower proportion of patients with flail chest (HV41% vs LV50%), pulmonary contusion (HV44% vs LV52%) and had shorter time to SSRF(HV58 vs LV76 â€‹h), less respiratory complications (HV3.2% vs LV4.5%), prolonged ventilator use (HV15% vs LV26%), mortality (HV2% vs LV2.6%) (all p â€‹< â€‹0.05). On multivariable regression analysis, HV centers were independently associated with reduced time to SSRF(ߠ​= â€‹-18.77,95%CI â€‹= â€‹-21.30to-16.25), respiratory complications (OR â€‹= â€‹0.67,95%CI â€‹= â€‹0.49-0.94), prolonged ventilator use (OR â€‹= â€‹0.49,95%CI â€‹= â€‹0.41-0.59), but not mortality. CONCLUSIONS: HV SSRF centers have improved outcomes, however, there are variations in threshold for SSRF and indications must be standardized. LEVEL OF EVIDENCE: Level III. STUDY TYPE: Therapeutic/Care Management.

Effect of PCC on outcomes of severe traumatic brain injury patients on preinjury anticoagulation.

INTRODUCTION: This study aims to evaluate effect of 4-factor PCC on outcomes of severe TBI patients on preinjury anticoagulants undergoing craniotomy/craniectomy. METHODS: In this analysis of 2018-2020 ACS-TQIP, patients with isolated blunt severe TBI (Head-AIS≥3, nonhead-AIS<2) using preinjury anticoagulants who underwent craniotomy/craniectomy were identified and stratified into PCC and No-PCC groups. Outcomes were time to surgery and mortality. Multivariable binary logistic and linear regression analyses were performed. RESULTS: 1598 patients were identified (PCC-107[7 %], No-PCC-1491[93 %]). Mean age was 74(11) years, 65 % were male, median head AIS was 4. Median time to PCC administration was 109 â€‹min. On univariable analysis, PCC group had shorter time to surgery (PCC-341, No-PCC-620 â€‹min, p â€‹= â€‹0.002), but higher mortality (PCC35 %, No-PCC21 %,p â€‹= â€‹0.001). On regression analysis, PCC was independently associated with shorter time to surgery (ߠ​= â€‹-1934,95 %CI â€‹= â€‹-3339to-26), but not mortality (aOR â€‹= â€‹0.70,95 %CI â€‹= â€‹0.14-3.62). CONCLUSION: PCC may be a safe adjunct for urgent reversal of coagulopathy in TBI patients using preinjury anticoagulants.

When is it safe to start venous thromboembolism prophylaxis after blunt solid organ injury? A prospective American Association for the Surgery of Trauma multi-institutional trial.

BACKGROUND: The optimal time to initiate venous thromboembolism (VTE) chemoprophylaxis (VTEp) after blunt solid organ injury remains controversial, as VTE mitigation must be balanced against bleeding promulgation. Evidence from primarily small, retrospective, single-center work suggests that VTEp ≤48 hours is safe and effective. This study was undertaken to validate this clinical practice. METHODS: Blunt trauma patients presenting to 19 participating trauma centers in North America were screened over a 1-year study period beginning between August 1 and October 1, 2021. Inclusions were age older than 15 years; ≥1 liver, spleen, or kidney injury; and initial nonoperative management. Exclusions were transfers, emergency department death, pregnancy, and concomitant bleeding disorder/anticoagulation/antiplatelet medication. A priori power calculation stipulated the need for 1,158 patients. Time of VTEp initiation defined study groups: Early (≤48 hours of admission) versus Late (>48 hours). Bivariate and multivariable analyses compared outcomes. RESULTS: In total, 1,173 patients satisfied the study criteria with 571 liver (49%), 557 spleen (47%), and 277 kidney injuries (24%). The median patient age was 34 years (interquartile range, 25-49 years), and 67% (n = 780) were male. The median Injury Severity Score was 22 (interquartile range, 14-29) with Abbreviated Injury Scale Abdomen score of 3 (interquartile range, 2-3), and the median American Association for the Surgery of Trauma grade of solid organ injury was 2 (interquartile range, 2-3). Early VTEp patients (n = 838 [74%]) had significantly lower rates of VTE (n = 28 [3%] vs. n = 21 [7%], p = 0.008), comparable rates of nonoperative management failure (n = 21 [3%] vs. n = 12 [4%], p = 0.228), and lower rates of post-VTEp blood transfusion (n = 145 [17%] vs. n = 71 [23%], p = 0.024) when compared with Late VTEp patients (n = 301 [26%]). Late VTEp was independently associated with VTE (odd ratio, 2.251; p = 0.046). CONCLUSION: Early initiation of VTEp was associated with significantly reduced rates of VTE with no increase in bleeding complications. Venous thromboembolism chemoprophylaxis initiation ≤48 hours is therefore safe and effective and should be the standard of care for patients with blunt solid organ injury. LEVEL OF EVIDENCE: Therapeutic and Care Management; Level III.

It is not all black and white: The effect of increasing severity of frailty on outcomes of geriatric trauma patients.

BACKGROUND: Frailty is associated with poor outcomes in trauma patients. However, the spectrum of physiologic deficits, once a patient is identified as frail, is unknown. The aim of this study was to assess the dynamic association between increasing frailty and outcomes among frail geriatric trauma patients. METHODS: This is a secondary analysis of the American Association of Surgery for Trauma Frailty Multi-institutional Trial. Patients 65 years or older presenting to one of the 17 trauma centers over 3 years (2019-2022) were included. Frailty was assessed within 24 hours of presentation using the Trauma-Specific Frailty Index (TSFI) questionnaire. Patients were stratified by TSFI score into six groups: nonfrail (<0.12), Grade I (0.12-0.19), Grade II (0.20-0.29), Grade III (0.30-0.39), Grade IV (0.40-0.49), and Grade V (0.50-1). Our Outcomes included in-hospital and 3-month postdischarge mortality, major complications, readmissions, and fall recurrence. Multivariable regression analyses were performed. RESULTS: There were 1,321 patients identified. The mean (SD) age was 77 years (8.6 years) and 49% were males. Median [interquartile range] Injury Severity Score was 9 [5-13] and 69% presented after a low-level fall. Overall, 14% developed major complications and 5% died during the index admission. Among survivors, 1,116 patients had a complete follow-up, 16% were readmitted within 3 months, 6% had a fall recurrence, 7% had a complication, and 2% died within 3 months postdischarge. On multivariable regression, every 0.1 increase in the TSFI score was independently associated with higher odds of index-admission mortality and major complications, and 3 months postdischarge mortality, readmissions, major complications, and fall recurrence. CONCLUSION: The frailty syndrome goes beyond a binary stratification of patients into nonfrail and frail and should be considered as a spectrum of increasing vulnerability to poor outcomes. Frailty scoring can be used in developing guidelines, patient management, prognostication, and care discussions with patients and their families. LEVEL OF EVIDENCE: Prognostic and Epidemiological; Level III.

Local Antibiotic Therapy for Open Long Bone Fractures: Appropriate Prophylaxis or Unnecessary Exposure for the Orthopedic Trauma Patient?

INTRODUCTION: Prophylactic local antibiotic therapy (LAbT) to prevent infection in open long bone fracture (OLBF) patients has been in use for many decades despite lack of definitive evidence confirming a beneficial effect. We aimed to evaluate the effect of LAbT on outcomes of OLBF patients on a nationwide scale. MATERIALS AND METHODS: In this retrospective analysis of 2017-2018 American College of Surgeons-Trauma Quality Improvement Program database, all adult (≥18 years) patients with isolated OLBF (non-extremity-Abbreviated Injury Scale < 3) were included. We excluded early deaths (<24 h) and those who had burns or non-extremity surgery. Outcomes were infectious complications (superficial surgical site infection, deep superficial surgical site infection, osteomyelitis, or sepsis), unplanned return to operating room, and hospital and intensive care unit length of stay (LOS). Patients were stratified into two groups: those who received LAbT and those who did not receive LAbT (No-LAbT). Propensity score matching (1:3) and chi-square tests were performed. RESULTS: A total of 61,337 isolated OLBF patients were identified, among whom 2,304 patients were matched (LAbT: 576; No-LAbT: 1,728). Both groups were similar in terms of baseline characteristics. Mean age was 43 ± 17 years, 75% were male, 14% had penetrating injuries, and the median extremity-Abbreviated Injury Scale was 1 (1-2). Most common fracture locations were tibia (66%), fibula (49%), femur (24%), and ulna (11%). About 52% of patients underwent external fixation, 79% underwent internal fixation, and 86% underwent surgical debridement. The median time to LAbT was 17 (5-72) h, and the median time to debridement was 7 (3-15) h (85% within 24 h). The LAbT group had similar rates of infectious complications (3.5% vs. 2.5%, P = 0.24) and unplanned return to the operating room (2.3% vs. 2.0%, P = 0.74) compared to the No-LAbT group. Patients who received LAbT had longer hospital LOS (16 [10-29] vs. 14 [9-24] days, P < 0.001) but similar intensive care unit LOS (4 [3-9] vs. 4 [2-7] days, P = 0.19). CONCLUSIONS: Our findings indicate that prophylactic LAbT for OLBF may not be beneficial over well-established standards of care such as early surgical debridement and systemic antibiotics. Prospective studies evaluating the efficacy, risks, costs, and indications of adjuvant LAbT for OLBF are warranted.

Delayed versus early hepatic resection among patients with severe traumatic liver injuries undergoing damage control laparotomy.

INTRODUCTION: We aimed to assess the effect of time to hepatic resection on the outcomes of patients with high-grade liver injuries who underwent damage control laparotomy (DCL). METHODS: This is a 4-year (2017-2020) analysis of the ACS-TQIP. Adult trauma patients with severe liver injuries (AAST-OIS grade â€‹≥ â€‹III) who underwent DCL and hepatic resection were included. We excluded patients with early mortality (<24 â€‹h). Patients were stratified into those who received hepatic resection within the initial operation (Early) and take-back operation (Delayed). RESULTS: Of 914 patients identified, 29% had a delayed hepatic resection. On multivariable regression analyses, although delayed resection was not associated with mortality (aOR:1.060,95%CI[0.57-1.97],p â€‹= â€‹0.854), it was associated with higher complications (aOR:1.842,95%CI[1.38-2.46],p â€‹< â€‹0.001), and longer hospital (ß: +0.129, 95%CI[0.04-0.22],p â€‹= â€‹0.005) and ICU (ß:+0.198,95%CI[0.14-0.25],p â€‹< â€‹0.001) LOS, compared to the early resection. CONCLUSION: Delayed hepatic resection was associated with higher adjusted odds of major complications and longer hospital and ICU LOS, however, no difference in mortality, compared to early resection.

From surveillance to surgery: The delayed implications of non-operative and operative management of pancreatic injuries.

BACKGROUND: Our study compares the delayed outcomes of operative versus nonoperative management of pancreatic injuries. METHODS: We analyzed the 2017 Nationwide Readmissions Database on adult (≥18 years) trauma patients with pancreatic injuries. Patients who died on index admission were excluded. Patients were stratified into operative (OP) and non-operative (NOP) groups and compared for outcomes within 90 days of discharge. Multivariable regression analyses were performed. RESULTS: We identified 1553 patients (NOP â€‹= â€‹1092; OP â€‹= â€‹461). The Mean (SD) age was 39 (17.0) years, 31% of patients were female, and 77% had blunt injuries. Median ISS was 17 [9-25] and 74% had concomitant non-pancreatic intraabdominal injuries. On multivariable analysis, operative management was independently associated with increased odds of 90-day readmissions (aOR â€‹= â€‹1.47; p â€‹= â€‹0.03), intraabdominal abscesses (aOR â€‹= â€‹2.7; p â€‹< â€‹0.01), pancreatic pseudocyst (aOR â€‹= â€‹2.4; p â€‹= â€‹0.04), and need for percutaneous or endoscopic management (aOR â€‹= â€‹5.8; p â€‹< â€‹0.001). CONCLUSION: Operative management of pancreatic injuries is associated with higher rates of delayed complications compared to non-operative management. Surgically treated pancreatic trauma patients may need close surveillance even after discharge.

Not all traumatic brain injury patients on preinjury anticoagulation are the same.

BACKGROUND: Prognostic significance of different anticoagulants in TBI patients remains unanswered. We aimed to compare effects of different anticoagulants on outcomes of TBI patients. METHODS: A secondary analysis of AAST BIG MIT. Blunt TBI patients ≥50 years using anticoagulants presenting ICH were identified. Outcomes were progression of ICH and need for neurosurgical intervention (NSI). RESULTS: 393 patients were identified. Mean age was 74 and most common anticoagulant was aspirin (30%), followed by Plavix (28%), and coumadin (20%). 20% had progression of ICH and 10% underwent NSI. On multivariate regression for ICH progression, warfarin, SDH, IPH, SAH, alcohol intoxication and neurologic exam deterioration were associated with increased odds. Warfarin, abnormal neurologic exam on presentation, and SDH were independent predictors of NSI. CONCLUSIONS: Our findings reflect a dynamic interaction between type of anticoagulants, bleeding pattern & outcomes. Future modifications of BIG may need to take the type of anticoagulant into consideration.

Does preinjury anticoagulation worsen outcomes among traumatic hemothorax patients? A nationwide retrospective analysis.

INTRODUCTION: Up to a quarter of all traumatic deaths are due to thoracic injuries. Current guidelines recommend consideration of evacuation of all hemothoraces with tube thoracostomy. The aim of our study was to determine the impact of pre-injury anticoagulation on outcomes of traumatic hemothorax patients. MATERIALS AND METHODS: We performed a 4-year (2017 - 2020) analysis of the ACS-TQIP database. We included all adult trauma patients (age ≥18 years) presenting with hemothorax and no other severe injuries (other body regions <3). Patients with a history of bleeding disorders, chronic liver disease, or cancer were excluded from this study. Patients were stratified into two groups based on the history of preinjury anticoagulant use (AC, preinjury anticoagulant use: No-AC, no preinjury anticoagulant use). Propensity score matching (1:1) was done by adjusting for demographics, ED vitals, injury parameters, comorbidities, thromboprophylaxis type, and trauma center verification level. Outcome measures were interventions for hemothorax (chest tube, video-assisted thoracoscopic surgery [VATS]), reinterventions (chest tube > once), overall complications, hospital length of stay (LOS), and mortality. RESULTS: A matched cohort of 6,962 patients (AC, 3,481; No-AC, 3,481) was analyzed. The median age was 75 years, and the median ISS was 10. The AC and No-AC groups were similar in terms of baseline characteristics. Compared to the No-AC group, AC group had higher rates of chest tube placement (46% vs 43%, p = 0.018), overall complications (8% vs 7%, p = 0.046), and longer hospital LOS (7[4-12] vs 6[3-10] days, p ≤ 0.001). Reintervention and mortality rates were similar between the groups (p>0.05). CONCLUSION: The use of preinjury anticoagulants in hemothorax patients negatively impacts patient outcomes. Increased surveillance is required while dealing with hemothorax patients on pre-injury anticoagulants, and consideration should be given to earlier interventions for such patients.

The unexpected paradox of geriatric traumatic brain injury outcomes: Uncovering racial and ethnic disparities.

BACKGROUND: Healthcare disparities have always challenged surgical care in the US. We aimed to assess the influence of disparities on cerebral monitor placement and outcomes of geriatric TBI patients. METHODS: Analysis of 2017-2019 ACS-TQIP. Included severe TBI patients ≥65 years. Patients who died within 24 h were excluded. Outcomes included mortality, cerebral monitors use, complications, and discharge disposition. RESULTS: We included 208,495 patients (White = 175,941; Black = 12,194) (Hispanic = 195,769; Non-Hispanic = 12,258). On multivariable regression, White race was associated with higher mortality (aOR = 1.26; p < 0.001) and SNF/rehab discharge (aOR = 1.11; p < 0.001) and less likely to be discharged home (aOR = 0.90; p < 0.001) or to undergo cerebral monitoring (aOR = 0.77; p < 0.001) compared to Black. Non-Hispanics had higher mortality (aOR = 1.15; p = 0.013), complications (aOR = 1.26; p < 0.001), and SNF/Rehab discharge (aOR = 1.43; p < 0.001) and less likely to be discharged home (aOR = 0.69; p < 0.001) or to undergo cerebral monitoring (aOR = 0.84; p = 0.018) compared to Hispanics. Uninsured Hispanics had the lowest odds of SNF/rehab discharge (aOR = 0.18; p < 0.001). CONCLUSIONS: This study highlights the significant racial and ethnic disparities in the outcomes of geriatric TBI patients. Further studies are needed to address the reason behind these disparities and identify potentially modifiable risk factors in the geriatric trauma population.

The final decision among the injured elderly, to stop or to continue? Predictors of withdrawal of life supporting treatment.

BACKGROUND: There is a paucity of data on factors that influence the decision regarding withdrawal of life supporting treatment (WLST) in geriatric trauma patients. We aimed to identify predictors of WLST in geriatric trauma patients. METHODS: This retrospective analysis of the American College of Surgeons- Trauma Quality Improvement Program (2017-2019) included all severely injured (Injury Severity Score >15) geriatric trauma patients (≥65 years). Multivariable logistic regression was performed to identify independent predictors of WLST. RESULTS: There were 155,583 patients included. Mean age was 77 ± 7 years, 55% were male, 97% sustained blunt injury, and the median Injury Severity Score was 17 [16-25]. Overall WLST rate was 10.8%. On MLR analysis, increasing age (adjusted odds ratio [aOR], 1.35; 95% confidence interval [CI], 1.33-1.37; p < 0.001), male sex (aOR, 1.14; 95% CI, 1.09-1.18; p < 0.001), White race (aOR, 1.44; 95% CI, 1.36-1.52; p < 0.001), frailty (aOR, 1.42; 95% CI, 1.34-1.50; p < 0.001), government insurance (aOR, 1.27; 95% CI, 1.20-1.33; p < 0.001), presence of advance directive limiting care (aOR, 2.55; 95% CI, 2.40-2.70; p < 0.001), severe traumatic brain injury (aOR, 1.80; 95% CI, 1.66-1.95; p < 0.001), ventilator requirement (aOR, 12.73; 95% CI, 12.09-13.39; p < 0.001), and treatment at higher level trauma centers (Level I aOR, 1.49; 95% CI, 1.42-1.57; p < 0.001; Level II aOR, 1.43; 95% CI, 1.35-1.51; p < 0.001) were independently associated with higher odds of WLST. CONCLUSION: Our results suggest that nearly one in 10 severely injured geriatric trauma patients undergo WLST. Multiple patient and hospital related factors contribute to decision making and directed efforts are necessary to create a more standardized process. LEVEL OF EVIDENCE: Prognostic and Epidemiological; Level III.

Interfacility transfer of pediatric trauma patients to higher levels of care: The effect of transfer time and level of receiving trauma center.

BACKGROUND: Interfacility transfer of pediatric trauma patients to pediatric trauma centers (PTCs) after evaluation in nontertiary centers is associated with improved outcomes. We aimed to assess the outcomes of transferred pediatric patients based on their severity of the injury, transfer time, and level of receiving PTCs. METHODS: This is a 3-year (2017-2019) analysis of the American College of Surgeons Trauma Quality Improvement Program database. All children (younger than 15 years) who were transferred from other facilities to Level I or II PTC were included and stratified by level of receiving PTCs and injury severity. Outcome measures were in-hospital mortality and major complications. RESULTS: A total of 67,726 transferred pediatric trauma patients were identified, of which 52,755 were transferred to Level I and 14,971 to Level II. The mean ± SD age and median Injury Severity Score were 7 ± 4 years and 4 (1-6), respectively. Eighty-five percent were transported by ground ambulance. The median transfer time for Levels I and II was 93 (70-129) and 90 (66-128) minutes, respectively ( p < 0.001). On multivariable regression, interfacility transfers to Level I PTCs were associated with decreased risk-adjusted odds of in-hospital mortality among the mildly to moderately injured group (adjusted odds ratio, 0.59; p = 0.037) and severely injured group with a transfer time of less than 60 minutes (adjusted odds ratio, 0.27; p = 0.002). CONCLUSION: Every minute increase in the interfacility transfer time is associated with a 2% increase in risk-adjusted odds of mortality among severely injured pediatric trauma patients. Factors other than the level of receiving PTCs, such as estimated transfer time and severity of injury, should be considered while deciding about transferring pediatric trauma patients to higher levels of care. LEVEL OF EVIDENCE: Therapeutic/Care Management; Level III.