- Original research
- Open Access
Severity-dependent differences in early management of thoracic trauma in severely injured patients - Analysis based on the TraumaRegister DGU®
Scandinavian Journal of Trauma, Resuscitation and Emergency Medicine volume 25, Article number: 10 (2017)
Major trauma is associated with chest injuries in nearly 50% of multiple injuries. Thoracic trauma is a relevant source of comorbidity throughout the period of multiply-injured patient care and may require swift and well-thought-out interventions in order to avert a deleterious outcome. In this epidemiological study we seek to characterize groups of different thoracic trauma severity in severely injured patients and identify related differences in prehospital and early clinical management. This may help to anticipate necessary treatment for chest injuries.
Patients documented between 2002 and 2012 in the TraumaRegister DGU®, aged ≥ 16 years, determined Injury Severity Score ≥ 16, and documentation from European trauma centers were analyzed. Isolated brain injury and severe head injury (Abbreviated Injury ScaleHead ≥ 4) led to patient exclusion. Patient subgroups were formed according to the Abbreviated Injury ScaleThorax as Controls, AIS-2, AIS-3, AIS-4, and AIS-5/6. Demographic and clinical characteristics comparing the aforementioned groups were evaluated using descriptive statistics.
Twenty two thousand five hundred sixty five predominantly male (74%) patients, mean age 45.7 years (SD 19.3), suffering from blunt trauma (95%), and presenting a mean Injury Severity Score of 25.6 (SD 9.6) were analyzed. Higher thoracic injury severity was associated with more different thoracic injuries. The highest rate of prehospital intubation (58%) occurred in AISThorax-5/6. The worse the chest trauma, the more chest tubes were placed prehospitally, peaking at 22% in AISThorax-5/6. Out-of-hospital cardiopulmonary resuscitation was successfully performed in 11% in AISThorax-5/6 compared to 1%–3% in lesser thoracic trauma severity. Massive transfusion and emergency surgery was highest in AISThorax-5/6 compared to lesser thoracic injury (12% vs. 5%–7% and 17% vs. 3%–7%) and both were independently associated with thoracic injuries in patients with AISThorax ≥ 4.
We provide epidemiological data on trauma mechanism, concomitant injuries, frequencies of emergency interventions and outcome associated with different thoracic trauma severity. Prehospital and early clinical management is more complex when AISThorax is ≥ 4. Severely injured patients with critical thoracic trauma are most challenging to take care of with highest rates in prehospital intubation, cardiopulmonary resuscitation, chest tube placements, blood transfusions as well as emergency surgery.
The percentage of patients with major trauma suffering from associated chest injuries is nearly 50% . Multiple-trauma is often associated with traumatic lung injury of different severity , where the reported mortality of chest trauma can be as high as 60% . Severe blunt thoracic trauma leads to contusions or lacerations of lung tissue, intrapulmonary bleeding, and alveolar collapse which impair pulmonary function. Additionally, respiratory function is compromised by increasing respiratory labor caused by reduced pulmonary compliance or thoracic wall instability and the impaired perfusion/ventilation relationship [4–6]. In the end, this complex pathophysiology can result in hypoxia, often necessitating endotracheal intubation . A recent chest wall trauma scoring system sought to predict which patients are more likely to require mechanical ventilation and require prolonged care as well as those with a higher mortality risk . However, this scoring system collects no information on concomitant injuries. Besides pulmonary failure as a major contributor to morbidity and mortality in trauma patients , brain death and hemorrhagic shock were major causes of early deaths in injured patients sustaining rib fractures . A serious consequence of chest trauma is a pneumothorax, that can quickly become life-threatening e.g., when tension pneumothorax develops, and require immediate treatment. The published rate of pneumothorax in major trauma patients is 20.6%, and 15% of those patients experienced chest decompression .
In summary, chest trauma itself is the cause of considerable morbidity and may require swift and well-thought-out interventions in order to avert a deleterious outcome . Of the deaths of severely injured patients, 20%–25% are attributed to chest injury [12, 13]. Thus, the combination of thoracic trauma with other serious injuries complicates already demanding patient care.
Those findings led us in this study to characterize severely injured patients with different thoracic trauma severity to identify thoracic trauma-related differences in preclinical and early clinical management. With this information, we aim to enrich our knowledge on what to expect when treating severely injured patients with serious thoracic trauma and to facilitate anticipating necessary treatment for chest injuries.
The TraumaRegister DGU® of the German Trauma Society (Deutsche Gesellschaft für Unfallchirurgie, DGU) was established in 1993. The aim of this multicenter database is the anonymized and standardized documentation of severely injured patients.
Data are collected prospectively in four consecutive time phases from the site of the accident until discharge from hospital: A) pre-hospital phase, B) emergency room and initial surgery, C) intensive care unit (ICU) and D) discharge. Documentation includes detailed information on demographics, injury pattern, comorbidities, pre-and in-hospital management, course on ICU, and relevant laboratory findings including data on transfusion and each individual’s outcome. The inclusion criterion is admission to hospital via the emergency room with subsequent ICU care or reaching the hospital with vital signs and dying before ICU admission.
The infrastructure for the documentation, data management and data analysis is provided by AUC – Academy for Trauma Surgery (AUC – Akademie der Unfallchirurgie GmbH), a company affiliated with the German Trauma Society. The scientific leadership is provided by the Committee on Emergency Medicine, Intensive Care and Trauma Management (Sektion NIS) of the German Trauma Society. The participating hospitals submit their data anonymously to a central database via a web-based application. Scientific data analysis is approved according to a peer review procedure established by Sektion NIS.
The participating hospitals are primarily located in Germany (90%), but a rising number of hospitals in other countries is contributing data as well (at the moment Austria, Belgium, China, Finland, Luxemburg, Slovenia, Switzerland, The Netherlands and United Arab Emirates). Currently approx. 35,000 cases from more than 600 hospitals have been entered into the database per year.
Participation in TR-DGU is voluntary. For hospitals associated with TraumaNetzwerk DGU®, however, the entry of at least a basic dataset is obligatory for reasons of quality assurance. In this basic dataset some variables do not have to be reported (e.g., prehospital use of catecholamines, emergency or early surgery during early clinical management, chest tube placement).
Patients documented between 2002 and 2012 in the TR-DGU were analyzed for eligibility. Patient selection was carried out according to the following criteria:
(1) online documentation of European trauma centers, (2) age ≥ 16 years, (3) ISS ≥ 16, (4) exclusion of isolated brain injuries, and (5) exclusion of severe head injury defined as AISHead ≥ 4. Injuries were graded according to the 2005 version of the Abbreviated Injury Scale (AIS) , and the Injury Severity Score (ISS) was calculated as described . While the ISS is calculated from the three worst- affected body regions as the sum of squares of the respective AIS severity levels, the New ISS (NISS) is calculated similarly, but instead of indicating their location, the three worst injuries enter the equation irrespective of location [15, 16].
Patient subgroups were defined according to the chest injury severity (AISThorax). The first group consisted of patients with no relevant thoracic injuries (AISThorax = 0 or 1), serving as a control group (“controls”). Group AIS-2 consisted of patients with AISThorax = 2. Group AIS-3 consisted of patients with AISThorax = 3. Group AIS-4 consisted of patients with AISThorax = 4. Group AIS-5/6 consisted of patients with AISThorax = 5 and 6, comprising the highest severity of chest trauma.
AISThorax included all thoracic injuries coded as AIS = 4xxxxx.x . Injuries to the thoracic spine were excluded, as these were coded with an AIS = 6xxxxx.x number.
Demographic and clinical characteristics comparing the aforementioned groups were evaluated using descriptive statistics. Continuous variables are presented as mean with standard deviation (SD), while categorical variables are presented as number of cases with percentages. The respective statistics refer to patients with valid data sets only. Therefore, the total number of patients or characteristics may sometimes vary. Data for early surgery and chest tube placement in the trauma resuscitation room are not part of the basic data set, therefore not all hospitals provide this information and patient numbers vary.
Formal statistical testing would require an initial overall test (chi-squared, analysis of variance or Kolmogoroff-Smirnov) followed by pair-wise comparisons in case of significance. The number of pair-wise tests with five subgroups would be ten per variable. Since the number of patients in the five subgroups ranges from roughly 2000 to 8000, even minor differences would attain statistical significance. The 95% confidence interval in groups with 2000 cases (or more) would be about +/− 2% (or less) in case of categorical variables, and +/− 0.025*SD in case of continuous variables. For these reasons, we refrained from formal statistical testing, and analysis is mainly descriptive.
The influence of thoracic trauma severity on massive transfusion, cardiopulmonary resuscitation (CPR) and emergency surgery, respectively, was determined by logistic regression analysis with results reported using adjusted odds ratios (OR) and [95% confidence interval]. In this analysis, groups “AIS-2” to “AIS-5/6” were compared with “controls”, adjusted for AISHead ≥ 3, AISAbdomen ≥ 3 and AISExtremity ≥ 3.
All data were analyzed using SPSS, version 22.0 (IBM Inc., Armonk, NY, USA).
The present study is in line with the publication guidelines of the TR-DGU and registered as TR-DGU project ID 2011–015.
A total of 22,565 severely injured patients, mean age 45.7 years (SD 19.3) and presenting a mean ISS of 25.6 (SD 9.6) were identified for further analysis.
Most data included in this study come from patients recorded in German trauma centers (88%), while 5% of data sets were entered from trauma centers in Austria and The Netherlands, each.
The study group’s basic characteristics are summarized in Table 1 and consist predominantly of male (74%) patients suffering from blunt trauma (95%).
Regarding the injury mechanism: the majority of patients sustained their injuries during road traffic accidents, mainly in cars (n = 7299; 34%). All accident causes are summarized in Table 2.
After on-scene patient care by professional emergency medical service personnel (EMS) including an emergency physician, patients were admitted to a Level 1 trauma center in 70%–75% of cases, depending on the severity of sustained chest injuries. Most of the remaining patients were taken to a Level 2 trauma center (22%–26%).
When counting the thoracic injuries of individual patients, we observed a consistent increase in number of diagnoses in patients with higher thoracic injury severity (Table 3). Overall, 21% of patients with thoracic trauma were coded as having three or more different thoracic injuries. One patient was even documented having as many as ten different thoracic injuries (results do not include injuries to the thoracic spine).
Since many patients suffered from multiple-injuries, we can describe relevant concomitant injuries besides their chest trauma. We defined a relevant injury as a serious (AIS ≥ 3) injury to the respective body region. The numbers and percentages of injuries to different body regions are listed in Table 4 according to the thoracic injury severity: About 22%–29% of patients with an AISThorax ≥ 2 suffered from additional serious abdominal injury (AISAbdomen ≥ 3) and more than a third suffered serious injuries to their extremities (AISExtremities ≥ 3). Since we excluded patients with AISHead ≥ 4 in our study, serious injury (AISHead = 3) to the head occurred in 20%–33% of patients with thoracic trauma. While many patients suffered from serious injuries to multiple body regions, solely thoracic trauma occurred in between 20% (AISThorax = 3) and more than 40% (AISThorax ≥ 4).
As a marker of global cerebral function, the prehospital GCS score was ≤ 8 in 29% of patients with an AISThorax ≥ 5; this is markedly higher than the 14%–17% of patients with an AISThorax ≤ 4. Again, patients with severe head trauma (AISHead ≥ 4) have already been excluded from both groups.
A multitude of procedures may become necessary during prehospital treatment (Table 5). It may be necessary to secure the airway and maintain oxygenation via endotracheal intubation or chest decompression through a tube thoracostomy in patients with thoracic trauma. Our data show that prehospital intubation was performed most frequently in severely injured patients with critical thoracic injuries (AISThorax ≥ 5), with 58% intubated before reaching the hospital.
The worse the chest trauma, the more chest tubes that were placed prehospitally, almost doubling with every increment in AISThorax and peaking at 22% of patients undergoing tube thoracostomy with an AISThorax ≥ 5.
Patients with an AISThorax ≥ 4 were more often hypotensive outside the hospital than patients with less severe thoracic injuries, resulting in increased use of catecholamines (norepinephrine, epinephrine). About 22% of patients with an AISThorax = 4 (respectively, 34% with an AISThorax ≥ 5) had a documented systolic blood pressure (BP) of initially 90 mmHg or below.
Out-of-hospital CPR was necessary and successful in 11% of patients with an AISThorax ≥ 5, compared to 1%–3% with an AISThorax ≤ 4. The effect of thoracic trauma severity on the need for CPR was significant in AISThorax ≥ 4 (groups “AIS-4” and “AIS-5/6”; adjusted OR 1.73 [1.33–2.26] and 6.87 [5.34–8.85], respectively).
Early clinical management
Procedures performed during early clinical management and patient stabilization in the emergency room are listed in Table 6.
At presentation in the trauma resuscitation room, a systolic BP below 90 mmHg was recorded most frequently in AISThorax ≥ 4 (18% AISThorax = 4 and 30% AISThorax ≥ 5).
Blood transfusions due to hemorrhagic shock during the initial resuscitation phase were most frequent in patients with critical/maximum thoracic trauma, but overall more patients had to be transfused than were actually in shock. Up to 7% of patients with AISThorax ≤ 4 and 12% of those with AISThorax ≥ 5 received more than 10 units of packed red blood cells (massive transfusion). The effect of thoracic trauma severity on massive transfusion was significant in AISThorax ≥ 4 (groups “AIS-4” and “AIS-5/6”; adjusted OR 1.44 [1.23–1.69] and 2.65 [2.21–3.16], respectively).
Since many patients with an AISThorax ≥ 5 presented in extremis, this resulted in the highest percentage of emergency surgeries (17%, e.g., thoracotomy, laparotomy, etc.) mandating cessation of the implemented trauma resuscitation algorithm. The effect of thoracic trauma severity on performed emergency surgeries was significant in AISThorax ≥ 4 (groups “AIS-4” and “AIS-5/6”; adjusted OR 1.39 [1.14–1.69] and 3.93 [3.18–4.84], respectively).
Whole-body computed tomography (WB-MSCT) was usually performed for radiological work-up, but patients with thoracic trauma (AISThorax ≥ 2) underwent comprehensive CT scanning more frequently. When looking at different diagnoses and their severity as reflected in the AISThorax, we tried to determine whether patients undergoing WB-MSCT had higher diagnosis-specific AIS scores than patients with plain radiographs or organ-selective CT. We did not observe higher AIS scores for flail chest, lung lacerations or hemothorax, but did detect more lung contusions (particularly AIS = 3; 25% vs. 14%), serial rib fractures (AIS = 3; 22% vs. 14%) and minor pneumothoraces (AIS = 2; 11% vs. 2%) in patients diagnosed by WB-MSCT. Interestingly enough, the WB-MSCTs did not lead to a higher percentage of chest tube placements (26% vs. 29%). However, a growing proportion of patients who underwent tube thoracostomy received chest tubes during the resuscitation period in conjunction with increasing thoracic trauma severity.
Severely injured patients of our collective suffering from more than severe thoracic injuries (AISThorax ≥ 4) have considerably higher scores in New ISS, as a measure of overall trauma severity, and an increase in mortality compared to minor thoracic trauma patients (Fig. 1). Patients with increased thoracic trauma severity (AISThorax ≥ 4) tend to die earlier, while the median length of hospital stay for surviving patients (22 days vs. 25 days) is measurably longer for AISThorax ≥ 5 only (Fig. 1).
We present a retrospective analysis of severely injured patients suffering from thoracic trauma of different magnitude. As in other studies [8, 10, 17–20], our population consists mainly of middle-age males with a mean ISS ≥ 16 suffering from blunt trauma. We deliberately excluded patients suffering from severe head trauma AISHead ≥ 4 to prevent confounding, since severe head trauma alone can be an indication for intubation . This allowed us to distinguish between additional reasons for intubation in severely injured patients due to chest injuries.
It has been suggested that patients sustaining trauma to the chest and suffering from three or more rib fractures be transferred to a trauma center, as well as seriously injured patients for whom transportation to a high-volume Level 1 trauma center is recommended [9, 21, 22]. In line with the aforementioned recommendation, our patients were treated mainly at Level 1 and Level 2 trauma centers participating in the TR-DGU.
As one would expect in a population of severely injured patients, we detected an array of injuries to other body regions. Our moderate percentage (18%–20%) of head trauma in patients with an AISThorax ≥ 4 is because we excluded patients with severe head trauma (AISHead ≥ 4) from our statistical assessment, since higher impact and kinematics causing major thoracic injuries will often result in significant head injuries also.
Higher percentages in concomitant abdominal and extremity injuries in severely injured patients with milder thoracic trauma are, in our opinion, attributable to the fact that to maintain an ISS ≥ 16 in the absence of significant thoracic injuries, these must have been compensated by more severe injuries to the extremities and/or the abdomen. Interestingly, about a quarter of patients with severe to critical chest injuries (AISThorax ≥ 3) suffered from abdominal injuries that were at least serious (AISAbdomen ≥ 3) in each group.
The highest rate of patients with cerebral dysfunction we report (29%), expressed as GCS ≤ 8, occurred in severely injured patients with AISThorax ≥ 5, compared to 14%–17% in AISThorax ≤ 4. This is consistent with the highest rate of systolic BP < 90 mmHg in AISThorax ≥ 5 patients, since cerebral dysfunction is an early sign of hypovolemia, in addition to the hypoxia encountered in severe thoracic trauma.
A recent study demonstrated that thoracic injuries in critical trauma patients were independently associated with a delayed diagnosis of injury. The overlooked injuries affected the chest and every other body region to varying degrees. The authors note that clinicians are easily distracted or preoccupied by more obvious or threatening conditions . It is therefore not surprising that chest injuries are overlooked, even in thoracic trauma patients, as we identified higher rates of multiple injuries to the chest with higher AISThorax. Most of the patients in our investigation underwent WB-MSCT for comprehensive diagnostic workup, as recommended . This is no doubt why we detected a plethora of injuries (up to 2.43 ± 1.18 injuries) in thoracic trauma by computed tomography, which is known to be more sensitive than plain radiographs .
Prehospital and early clinical management
The prehospital management of severely injured patients varies with the extent of chest trauma. We noted a major increase in prehospital intubation rates in patients with AISThorax = 4 to ≥ 5 (44% vs. 58%), consistent with previous intubation and ventilation rates reported to be between 50 and 70% depending on the severity of the initial blunt thoracic trauma [4, 26, 27].
Continuously-rising rates of chest tube insertion were documented for our patient cohorts in conjunction with increasing AISThorax. Overall, 8% (1%–22%) required preclinical chest tube placement, rising to overall 27% (2%–62%) chest tube placements during the early hospital resuscitation phase. Higher frequencies of prehospital thoracic decompression with increasing AISThorax are in line with other reports . Additionally, our rates of chest tube placements are within published rates of 44%–53% in patients presenting to the hospital with severe chest trauma [27, 29], and a rate of about 25% in patients presenting with major trauma [29, 30]. On the other hand, the rate of overall chest tube insertions in severely injured patients was recently reported to be dropping . Reasons for the increase in chest tube placements we documented may be more severe pneumo- and hemothoraces with higher AISThorax scores and, within the AISThorax = 5 group, mandatory chest decompression because of tension pneumothorax.
When considering our patient groups’ circulatory condition, it is important to note that up to AISThorax = 3, the reported rates of systolic BP below 90 mmHg followed by catecholamine administration did not differ. The first increase in the incidence of hypotension (systolic BP < 90 mmHg) and catecholamine use appears with AISThorax = 4, and even more substantially in AISThorax ≥ 5, where a third reportedly had been in shock. This might be due to the fact that, for example, relevant hemothorax involving a blood loss exceeding 1000 ml is coded as AISThorax = 4, while tension pneumothorax is AISThorax = 5. Injuries to the chest coded as AISThorax < 4 seem to have an additional impact on circulation in severely injured patients.
Not contradictory is the rate of prehospital CPR in our population of severely injured patients, where about 1%–3% with an AISThorax ≤ 4 underwent CPR. Past studies reporting on patients from the TR-DGU describe about 3% of severely injured patients undergoing CPR attempts outside the hospital . There is a discrepancy in our AISThorax ≥ 5 patients, 11% of whom underwent CPR due to greater chest trauma severity and reached the hospital showing signs of life. Furthermore, the highest rate of prehospital chest tube placement occurred in patients with AISThorax ≥ 5, 22% of whom received this therapy. Presumably, tension pneumothoraces – one possibility for an AISThorax = 5 score – resulted in cardiopulmonary arrest and, when properly treated via chest decompression, the appropriate management to facilitate sufficient CPR occurred as well. This might be why prehospital chest tube insertion has been observed to be a strong predictor for survival in the resuscitation of patients in traumatic cardio-respiratory arrest , and correlates with findings that 13% of traumatic cardiac arrests were ascribed to tension pneumothoraces . Taken together, this highlights the fact that the most common management error in traumatic cardiac arrest is failing to decompress the tension pneumothorax [32, 34]. With the results of our study we can emphasize that severe thoracic trauma is a significant cause for CPR in the severely injured patient.
The application of packed red blood cells and massive transfusion was most frequent (35% and 12%, respectively) in patients with AISThorax ≥ 5, which is consistent with the highest rate of systolic BP < 90 mmHg during the early clinical resuscitation phase. Overall, we report rates of 26% of patients requiring transfusions and 7% undergoing massive transfusion, resembling other reported rates of 24% and 5.6% in multiple-injury patients . Consistent with this, we found 17% of severely injured patients with an AISThorax ≥ 5 in such dire straits that they required emergency surgery. Additionally, we were able to show that massive transfusion and emergency surgery is significantly associated with severe thoracic trauma (AISThorax ≥ 4) in severely injured patients.
Consistent with others, we report an increasing mortality with thoracic trauma severity. Albeit, our reported mortality is lower than previously published, which may in part be due to our deliberate exclusion of patients with severe head injury [3, 19]. Our reported median times of overall hospital stay are about comparable to the shorter of the previously-reported mean stays of 20 days – 38 days . Interestingly, we found the longest inpatient periods with AISThorax ≥ 5. This is in contrast to previous results , yet we included only surviving patients in our analysis. Patients with higher AISThorax might experience an earlier death compared to others, thus statistically shortening the inpatient period, if not controlled for by exclusion.
This study has several limitations. One is its retrospective nature. Not all data were recorded on some procedures and characteristics, but those cases were still comprehensive. All hospitals participating in the TR-DGU submit to regular audits and sample tests are performed to ensure data quality. However, the documentation’s validity is not controlled by external monitoring as in prospective trials .
Additionally, patients from different European hospitals are included in this study. Although mainly Level 1 and 2 trauma centers contribute to this database, we cannot comment on locally implemented protocols or specialized training (e.g., ATLS®) for trauma care. But the vast majority of our patients received care in German hospitals where training in ATLS® courses and protocols has been established since 2003 . During the years of our study this standardized training spread to participating hospitals, and presumably over time our patient cohort received similar early clinical treatment according to their injury severity. Nevertheless, contributing hospitals to the database change over time and so does the mixture of participating trauma center levels.
In our study, we excluded patients with severe head injury (AISHead ≥ 4) to minimize confounding and, as a result, our findings cannot be readily transferred to severely injured patients sustaining additional major head trauma.
Severely injured patients are always challenging, even more so when they have suffered critical trauma to the chest. We have detected a growing number of diagnoses involving greater thoracic trauma severity, which results in more complex patients. We also noted that prehospital intubation and chest tube placement took place more often in patients presenting more severe thoracic trauma. While AISThorax ≤ 3 did not lead to increased rates of prehospital systolic BP below 90 mmHg or catecholamine use, AISThorax ≥ 4 did reveal a relevant impact on the circulatory system. This observation is supported by the fact that in all patients admitted to a hospital, an AISThorax ≥ 5 correlated with the highest rate of prehospital cardiopulmonary resuscitation.
In the early clinical resuscitation phase requiring blood transfusions, mass transfusions and emergency surgeries, an AISThorax ≥ 5 in severely injured patients frequently meant massive transfusions and emergency surgery during early hospital care. Not surprisingly, this is the most challenging group to take care of.
Abbreviated injury scale
Deutsche Gesellschaft für Unfallchirurgie
Emergency medical service personnel
Glasgow coma scale
Intensive care unit
Injury severity score
Length of hospital stay
Packed red blood cells
The TraumaRegister DGU®
Whole-body computed tomography
Vecsei V, Arbes S, Aldrian S, Nau T. Chest injuries in polytrauma. Eur J Trauma. 2005;31:239–43.
Ried M, Bein T, Philipp A, Muller T, Graf B, Schmid C, et al. Extracorporeal lung support in trauma patients with severe chest injury and acute lung failure: a 10-year institutional experience. Crit Care. 2013;17(3):R110.
Bardenheuer M, Obertacke U, Waydhas C, Nast-Kolb D. Epidemiology of the severely injured patient. A prospective assessment of preclinical and clinical management. AG Polytrauma of DGU [German]. Unfallchirurg. 2000;103(5):355–63.
Barone JE, Pizzi WF, Nealon Jr TF, Richman H. Indications for intubation in blunt chest trauma. J Trauma. 1986;26(4):334–8.
Pepe PE, Hudson LD, Carrico CJ. Early application of positive end-expiratory pressure in patients at risk for the adult respiratory-distress syndrome. N Engl J Med. 1984;311(5):281–6.
Putensen C, Waibel U, Koller W, Putensen-Himmer G, Beck E, Benzer H. Acute lung failure following thoracic trauma [German]. Anaesthesist. 1990;39(10):530–4.
Pressley CM, Fry WR, Philp AS, Berry SD, Smith RS. Predicting outcome of patients with chest wall injury. Am J Surg. 2012;204(6):910–3.
Geiger EV, Lustenberger T, Wutzler S, Lefering R, Lehnert M, Walcher F, et al. Predictors of pulmonary failure following severe trauma: a trauma registry-based analysis. Scand J Trauma Resusc Emerg Med. 2013;21:34.
Bergeron E, Lavoie A, Clas D, Moore L, Ratte S, Tetreault S, et al. Elderly trauma patients with rib fractures are at greater risk of death and pneumonia. J Trauma. 2003;54(3):478–85.
Di Bartolomeo S, Sanson G, Nardi G, Scian F, Michelutto V, Lattuada L. A population-based study on pneumothorax in severely traumatized patients. J Trauma. 2001;51(4):677–82.
Leone M, Bregeon F, Antonini F, Chaumoitre K, Charvet A, Ban LH, et al. Long-term outcome in chest trauma. Anesthesiology. 2008;109(5):864–71.
Gaillard M, Herve C, Mandin L, Raynaud P. Mortality prognostic factors in chest injury. J Trauma. 1990;30(1):93–6.
Inthorn D, Huf R. Thoracic trauma in multiple trauma [German]. Anasthesiol Intensivmed Notfallmed Schmerzther. 1992;27(8):498–501.
Gennarelli TA, Wodzin E. AIS 2005. Barrington: Association for the Advancement of Automotive Medicine; 2005.
Baker SP, O’Neill B, Haddon Jr W, Long WB. The injury severity score: a method for describing patients with multiple injuries and evaluating emergency care. J Trauma. 1974;14(3):187–96.
Osler T, Baker SP, Long W. A modification of the injury severity score that both improves accuracy and simplifies scoring. J Trauma. 1997;43(6):922–5.
Dai D, Yuan Q, Sun Y, Yuan F, Su Z, Ding J, et al. Impact of thoracic injury on traumatic brain injury outcome. PLoS One. 2013;8(9):e74204.
Ruchholtz S, Waydhas C, Ose C, Lewan U, Nast-Kolb D. Prehospital intubation in severe thoracic trauma without respiratory insufficiency: a matched-pair analysis based on the Trauma Registry of the German Trauma Society. J Trauma. 2002;52(5):879–86.
Hildebrand F, Giannoudis PV, Griensven M, Zelle B, Ulmer B, Krettek C, et al. Management of polytraumatized patients with associated blunt chest trauma: a comparison of two European countries. Injury. 2005;36(2):293–302.
Fröhlich M, Lefering R, Probst C, Paffrath T, Schneider MM, Maegele M, et al. Epidemiology and risk factors of multiple-organ failure after multiple trauma: an analysis of 31,154 patients from the TraumaRegister DGU. J Trauma Acute Care Surg. 2014;76(4):921–7.
Lee RB, Bass SM, Morris Jr JA, MacKenzie EJ. Three or more rib fractures as an indicator for transfer to a Level I trauma center: a population-based study. J Trauma. 1990;30(6):689–94.
Minei JP, Fabian TC, Guffey DM, Newgard CD, Bulger EM, Brasel KJ, et al. Increased trauma center volume is associated with improved survival after severe injury: results of a resuscitation outcomes consortium study. Ann Surg. 2014;260(3):456–65.
Lee WC, Chen CW, Lin YK, Lin TY, Kuo LC, Cheng YC, et al. Association of head, thoracic and abdominal trauma with delayed diagnosis of co-existing injuries in critical trauma patients. Injury. 2014;45(9):1429–34.
Huber-Wagner S, Lefering R, Qvick LM, Korner M, Kay MV, Pfeifer KJ, et al. Effect of whole-body CT during trauma resuscitation on survival: a retrospective, multicentre study. Lancet. 2009;373(9673):1455–61.
Langdorf MI, Medak AJ, Hendey GW, Nishijima DK, Mower WR, Raja AS, et al. Prevalence and clinical import of thoracic injury identified by chest computed tomography but not chest radiography in blunt trauma: multicenter prospective cohort study. Ann Emerg Med. 2015;66(6):589–600.
Johnson JA, Cogbill TH, Winga ER. Determinants of outcome after pulmonary contusion. J Trauma. 1986;26(8):695–7.
Dehghan N, de Mestral C, McKee MD, Schemitsch EH, Nathens A. Flail chest injuries: a review of outcomes and treatment practices from the National Trauma Data Bank. J Trauma Acute Care Surg. 2014;76(2):462–8.
Bulger EM, Nathens AB, Rivara FP, MacKenzie E, Sabath DR, Jurkovich GJ. National variability in out-of-hospital treatment after traumatic injury. Ann Emerg Med. 2007;49(3):293–301.
Heng K, Bystrzycki A, Fitzgerald M, Gocentas R, Bernard S, Niggemeyer L, et al. Complications of intercostal catheter insertion using EMST techniques for chest trauma. ANZ J Surg. 2004;74(6):420–3.
Probst C, Pape HC, Hildebrand F, Regel G, Mahlke L, Giannoudis P, et al. 30 years of polytrauma care: An analysis of the change in strategies and results of 4849 cases treated at a single institution. Injury. 2009;40(1):77–83.
Gräsner JT, Wnent J, Seewald S, Meybohm P, Fischer M, Paffrath T, et al. Cardiopulmonary resuscitation traumatic cardiac arrest—there are survivors. An analysis of two national emergency registries. Crit Care. 2011;15(6):R276.
Huber-Wagner S, Lefering R, Qvick M, Kay MV, Paffrath T, Mutschler W, et al. Outcome in 757 severely injured patients with traumatic cardiorespiratory arrest. Resuscitation. 2007;75(2):276–85.
Kleber C, Giesecke MT, Lindner T, Haas NP, Buschmann CT. Requirement for a structured algorithm in cardiac arrest following major trauma: epidemiology, management errors, and preventability of traumatic deaths in Berlin. Resuscitation. 2014;85(3):405–10.
Buschmann C, Kleber C. No more tension pneumothorax in unsuccessfully resuscitated patients with penetrating chest trauma at autopsy! Injury. 2013;44(11):1659–60.
Lefering R, Paffrath T. Reality of care based on the data from the Trauma Registry of the German Society of Trauma Surgery [German]. Unfallchirurg. 2012;115(1):30–2.
Münzberg M, Paffrath T, Matthes G, Mahlke L, Swartman B, Hoffman M, et al. Does ATLS trauma training fit into Western countries: evaluation of the first 8 years of ATLS Germany. Eur J Trauma Emerg Surg. 2013;39(5):517–22.
The authors thank Carole Cürten and Joanne Eysell for professional language editing.
The article processing charge was funded by the German Research Foundation (DFG) and the Albert Ludwigs University Freiburg in the funding program Open Access Publishing.
Participating hospitals are listed in alphabetical order under http://www.traumaregister-dgu.de.
No funding was received for this study.
Availability of data and material
The datasets used and/or analyzed during the current study are available from the corresponding author on reasonable request.
JB conceived and designed the study, interpreted the data and drafted the manuscript. RL was in charge of the statistical reports. RL, SR, JK, NS and TH contributed to the study design, interpreted the data and critically revised the manuscript. All authors read and approved the final manuscript.
The authors declare that they have no competing interests.
Consent for publication
Ethics approval and consent to participate
The study was approved by the University of Freiburg Ethics Committee (EK 358/15) and informed consent was waived.
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Cite this article
Bayer, J., Lefering, R., Reinhardt, S. et al. Severity-dependent differences in early management of thoracic trauma in severely injured patients - Analysis based on the TraumaRegister DGU®. Scand J Trauma Resusc Emerg Med 25, 10 (2017). https://doi.org/10.1186/s13049-017-0354-4
- Severely injured
- Thoracic trauma
- Chest injury
- Emergency management
- Emergency procedures