[Air-plombage after open window thoracostomy for chronic empyema. Thoracostomy window pedicle muscle prosthesis by the anterior serratus muscle].
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OBJECTIVES: To report our results of patients undergoing thoracoabdominal radical nephrectomy without intraoperative placement of a thoracostomy tube. It has been routine in our hospital to not place a thoracostomy tube in patients undergoing thoracoabdominal radical nephrectomy since 1988. METHODS: We conducted a retrospective review of 47 thoracoabdominal radical nephrectomies performed from January 1988 through November 1998 at our institution. Of the 47 patients, 39 did not have a thoracostomy tube placed intraoperatively; the other 8 patients did. The development of all postoperative complications, length of hospital stay, and hospital charges were noted. RESULTS: No postoperative mortality was noted in our study. Of the 47 patients in the study, 20 patients had a total of 29 complications. The overall number of complications was not increased in the group without a thoracostomy tube compared with the group with a thoracostomy tube (P = 0.104). No patient treated without a thoracostomy tube required subsequent placement of a tube for persistent pneumothorax. The mean length of hospital stay in patients with a thoracostomy tube after radical nephrectomy was 9.14 +/- 2.65 days; in patients without a thoracostomy tube, the mean length of stay was 7.07 +/- 3.97 days (P = 0.071). CONCLUSIONS: In patients without parietal pleural injury, thoracoabdominal radical nephrectomy without the placement of a thoracostomy tube can be performed safely and effectively, with a low risk of postoperative complications and a decrease in the overall hospital stay and hospital charges.
OBJECTIVE: Successful treatment of postoperative empyema remains a challenge for thoracic surgeons. We report herein our 12-year experience in the management of this condition by means of open window thoracostomy. METHODS: Open window thoracostomy was used in the treatment of 46 patients with empyema complicating pulmonary resection. A bronchopleural fistula was associated in 39 of 46 cases. Previous operations included pneumonectomy (n = 30), bilobectomy (n = 5), lobectomy (n = 9), and wedge resection (n = 2) performed for benign (n = 10) or malignant (n = 36) disease. In 10 patients open window thoracostomy was definitive because of patient death (n = 2), concomitant major illness (n = 2), tumor recurrence (n = 4), spontaneous closure (n = 1), or patient choice (n = 1). In 36 cases intrathoracic flap transposition was eventually performed. Muscular (n = 29), omental (n = 5), or combined muscular and omental (n = 2) flaps were used to obliterate the thoracostomy cavity and to close a possibly associated bronchopleural fistula. In 9 patients with postpneumonectomy cavities too wide to be filled by the available flaps, a limited thoracoplasty represented an intermediate step. RESULTS: Among patients treated with definitive open window thoracostomy, local control of the infection was achieved in all the survivors (8/8). After open window thoracostomy and subsequent flap transposition, success (definitive closure of the thoracostomy and, if present, of the bronchopleural fistula) was achieved in 27 (75. 0%) of 36 patients. Four initial failures could be salvaged by means of reoperation (initial reopening of thoracostomy and subsequent muscular or omental transposition). CONCLUSION: Open window thoracostomy followed by intrathoracic muscle or omental transposition represents a valid therapeutic option in patients with empyema complicating pulmonary resections.
BACKGROUND/PURPOSE: Tube thoracostomy is a standard method of treating pediatric parapneumonic collections. Despite recent work denoting thoracoscopy as a superior method of treatment, few studies have looked at factors predictive of tube thoracostomy failure. We reviewed parapneumonic collections initially treated with tube thoracostomy to identify such factors. METHODS: Nontuberculous parapneumonic collections treated initially with tube thoracostomy over a 10-year period were reviewed. A "failed primary tube thoracostomy" was defined as the presence of worsening clinicoradiological signs requiring a further chest procedure (ie, thoracoscopy, thoracotomy, or second thoracostomy). RESULTS: Fifty-eight patients were identified. Forty-three percent failed primary tube thoracostomy. Within group F (failure group), 32% of patients had a concomitant medical condition (P < .001). Sixty percent of group F patients had duration of symptoms for more than 1 week compared with only 24% of group S (successful group) (P < .001). CONCLUSIONS: Our results suggest that primary treatment of parapneumonic collections with tube thoracostomy is likely to be unsuccessful in patients who are symptomatic for more than a week or who have a concomitant medical condition. A more aggressive primary surgical intervention is suggested for this group.
OBJECTIVE: Emergency-procedure laboratories are not a standardized part of the curriculum for emergency medicine residency programs. The authors evaluated the efficacy of an emergency-procedure laboratory to teach medical students and residents the performance of tube thoracostomy. METHODS: A prospective repeated-measures study of tube thoracostomy placement training was performed in an animal-laboratory setting. Participants were six first-postgraduate-year emergency medicine residents and six fourth-year medical students. Each participant was given a written pretest on tube thoracostomies followed by lectures on tube thoracostomy, venous cutdown, peritoneal lavage, and surgical airway. The procedure laboratory, using an anesthetized canine model (20-25 kg), was then conducted. Tube thoracostomies were timed from skin incision to passage of the tube into the thoracic cavity with subsequent tube fogging. Four attempts per participant were documented. Eighteen days later, an identical procedure laboratory was conducted for the same students including a written posttest identical to the pretest. RESULTS: The written test scores improved for every participant (p < 0.0001). Mean times for procedures completion improved from 121 sec to 39 sec (p = 0<.001) during the first session and improved from 58 sec to 28 sec (p = 0.005) during the second session. Retention of skills was indicated by significant shortening of the time to completion from the first attempt of the first session to that of the second session (121 sec to 58 sec, p = 0.002). CONCLUSION: This procedure laboratory, which emphasized skill repetition, led to improvement in procedural speed and retention of tube thoracostomy skills over time. This approach to teaching clinical procedures should be considered for emergency medicine residency programs and for continuing medical education courses that emphasize acquisition of clinical procedural skills.
STUDY DESIGN: Prospective clinical trial of vertical expandable prosthetic titanium rib (VEPTR) in patients with combined spine and chest wall deformity with scoliosis and fused ribs. OBJECTIVE: Report the efficacy and safety of expansion thoracostomy and VEPTR surgery in the treatment of thoracic insufficiency syndrome (TIS) associated with fused ribs. SUMMARY OF BACKGROUND DATA: Traditional attitudes toward early-onset combined chest and spine deformity assume that thoracic deformity is best controlled by treatment directed at spine deformity, often involving early spinal arthrodesis. Campbell and others have heightened awareness of the interrelationship between lung, chest, and spine development during growth and characterized TIS as the inability of the thorax to support normal respiration or lung growth. Expansion thoracostomy and VEPTR insertion was developed to directly control both spine and chest wall deformity during growth, while permitting continued vertebral column and chest growth at an early stage. METHODS: Multidisciplinary evaluation of children with combined spine and chest wall deformity included pediatric pulmonologist, thoracic, and orthopedic surgeon evaluations. One or more opening wedge expansion thoracostomies and placement of VEPTR devices were performed as described by Campbell, with repeated device lengthenings during growth. Parameters measured included Cobb angle, length of thoracic spine, CT-derived lung volumes, and in older children pulmonary function tests. RESULTS: Thirty-one patients with fused ribs and TIS were treated, 4 of whom had undergone prior spinal arthrodesis at other institutions with continued progression of deformity. In 30 patients, the spinal deformity was controlled and growth continued in the thoracic spine during treatment at rates similar to normals. Increased volume of the constricted hemithorax and total lung volumes obtained during expansion thoracostomy were maintained at follow-up. Complications included device migration, infection, and brachial plexus palsy. CONCLUSIONS: Expansion thoracostomy and VEPTR insertion with serial lengthening may be the preferred treatment for young children with chest wall deformity and scoliosis associated with fused ribs but requires multidisciplinary care and attention to details of soft tissue management. When indicated, surgical intervention with VEPTR can be considered early in growth, before deformity is severe, since spinal growth will continue with treatment.
We have analyzed the radiographic and computed tomographic (CT) appearance of thoracostomy (chest) tubes inadvertently placed into the lungs. We have studied the clinical sequela of such malpositioning and discussed treatment options. Cases were collected from chest CT log book reports between January 1998 and January 31, 2005 which indicated or suggested intrapulmonary thoracostomy tube placement. CT scans were reviewed by the authors. The chest radiographs and medical records--including thoracic surgical reports--of those patients whose scans demonstrated intrapulmonary tube placement or indeterminate tube location were reviewed. Fifty patients, in whom 51 thoracostomy tubes were placed into the lungs, are included in this series. None of these tubes were described as intrapulmonary on reports of chest radiographs done before CT scanning. In 13 patients (26%), thoracostomy tube placements produced immediate improvement in pleural abnormalities. Dramatic increase or development of chest wall emphysema or pneumothorax was noted in 4 (8%) patients after tube placement. Twenty-five patients (50%) demonstrated either abrupt or gradual increase in pulmonary or pleural opacity on postplacement chest radiographs. Twenty-one (42%) had no apparent clinical complications. Thirteen (26%) had either prolonged air leaks or recurrent pneumothorax. Ten (20%) developed pneumonia. Retained hemothorax or empyema occurred in 8 (16%). Twelve patients (24%) required subsequent thoracic surgery. Intrapulmonary placement of thoracostomy tubes is probably more common than previously reported. This possibility should be considered when radiographs and CT scans are evaluated.
OBJECTIVE: To assess the complication rate of tube thoracostomy in trauma. To consider whether this rate is high enough to support a selective reduction in the indications for tube thoracostomy in trauma. METHODS: A retrospective case series of all trauma patients who underwent tube thoracostomy during a 12 month period at a large UK teaching hospital with an accident and emergency (A&E) department seeing in excess of 125,000 new patients/year. These patients were identified using the hospital audit department computerised retrieval system supplemented by a hand search of both the data collected for the Major Trauma Outcome Study and the A&E admission unit log book. The notes were assessed with regard to the incidence of complications, which were divided into insertional, infective, and positional. RESULTS: Fifty seven chest drains were placed in 47 patients over the 12 month period. Seven patients who died within 48 hours of drain insertion were excluded. The commonest indications for tube thoracostomy were pneumothorax (54%) and haemothorax (20%); 90% of tubes were placed as a result of blunt trauma. The overall complication rate of the procedure was 30%. There were no insertional complications and only one (2%) major complication, which was empyema thoracis. CONCLUSION: This study reveals no persuasive evidence to support a selective reduction in the indications for tube thoracostomy in trauma. A larger study to confirm or refute these findings must be performed before any change in established safe practice.
STUDY OBJECTIVES: To determine the predicting factors for outcome of tube thoracostomy in patients with complicated parapneumonic effusion (CPE) or empyema. DESIGN AND SETTINGS: Retrospective chart review over a 55-month period at a tertiary referred medical center. PATIENTS AND MEASUREMENTS: The medical charts of patients with empyema or CPE were reviewed. Data including age, gender, clinical symptoms, important underlying diseases, leukocyte count, duration of preadmission symptoms, interval from first procedure to second procedure, the time from first procedure to discharge (recovery time), the amount of effusion drained, administration of intrapleural streptokinase, chest tube size and position, loculation of pleural effusion, and characteristics and culture results of pleural effusion were recorded and compared between groups of patients with successful and failed outcome of tube thoracostomy drainage. RESULTS: One hundred twenty-one patients were selected for study. One hundred of these patients had received tube thoracostomy drainage with 53 successful outcomes and 47 failed outcomes of chest tube drainage. Nineteen patients received decortication directly, and the other two received antibiotics alone. Univariate analysis showed that pleural effusion leukocyte count, effusion amount, and loculation of pleural effusion were significantly related to the outcome of chest tube drainage. Multiple logistic regression analysis demonstrated that loculation and pleural effusion leukocyte count < or = 6,400/uL were the only independent predicting factors related to failure of tube thoracostomy drainage. CONCLUSIONS: Loculation and pleural effusion leukocyte count < or = 6,400/microL were independent predicting factors of poor outcome of tube thoracostomy drainage. These results suggest that if the initial attempt at chest tube drainage fails, early surgical intervention should be considered in good surgical candidates with loculated empyema or pleural effusion with leukocyte count < or = 6,400/microL.
OBJECTIVE: Controversy surrounds the optimal treatment of parapneumonic effusions. This trial of pediatric patients with community-acquired pneumonia and associated parapneumonic processes compared primary video-assisted thoracoscopic surgery with conventional thoracostomy drainage. DESIGN: A prospective, randomized trial was conducted at DeVos Children's Hospital (Grand Rapids, MI) between November 2003 and May 2005. All of the patients under 18 years of age with large parapneumonic effusions were approached for enrollment in the study. After enrollment, each patient was randomly assigned to receive either video-assisted thoracoscopic surgery or thoracostomy tube drainage of the effusion. Subsequent therapies (fibrinolysis, imaging, and further drainage procedures) were similar for each group per protocol. RESULTS: Eighteen patients were enrolled in the study: 10 in video-assisted thoracoscopic surgery and 8 in conventional thoracostomy. The groups were demographically similar. No mortalities were encountered in either group, and everyone was discharged from the hospital with acceptable outcomes. Yet, there were multiple variables that demonstrated statistical difference. Hospital length of stay, number of chest tube days, narcotic use, number of radiographic procedures, and interventional procedures were all less in the patients who underwent primary video-assisted thoracoscopic surgery. In addition, no patient in the video-assisted thoracoscopic surgery group required fibrinolytic therapy, which was also statistically different from the thoracostomy drainage group. CONCLUSIONS: The outcomes of this study strongly suggest that primary video-assisted thoracoscopic surgery for evacuation of parapneumonic effusions is superior to conventional thoracostomy drainage.
The objective of this study is to show that primary treatment of malignant pleural effusions secondary to ovarian carcinoma with video-assisted thoracoscopic surgery (VATS)-assisted talc poudrage (VATS-ATP) results in shorter hospital stays and reduced time with a chest tube than primary treatment with a chest tube and chemical pleurodesis. We conducted a retrospective chart review of all patients with a symptomatic pleural effusion secondary to primary ovarian carcinoma receiving intervention from January 1996 to December 2000. Patients either received tube thoracostomy with pleurodesis (n = 22) or VATS-ATP (n = 12). Of the patients treated with tube thoracostomy 18 per cent (4/21) died in the hospital before pleurodesis, 77 per cent (14/19) had successful pleurodesis, and 22 per cent (4/18) failed pleurodesis requiring VATS-ATP. In the group treated primarily with tube thoracostomy the chest tube was in place 8.36 +/- 2.61 days with a hospital stay of 12.64 +/- 5.80 days after the procedure. In the group treated with VATS-ATP there was 100 per cent successful pleurodesis. There were no mortalities. There was one prolonged intubation of 3 days and one incomplete lung reexpansion. The chest tube was in place for 4.58 +/- 1.78 days and a hospital stay of 7.50 +/- 4.12 days postprocedure. Groups treated by tube thoracostomy and VATS were statistically different; P < 0.001 for days with a chest tube and P = 0.011 for hospital days. We conclude that both tube thoracostomy with chemical pleurodesis and VATS-ATP provide adequate treatment of ovarian carcinoma-associated malignant pleural effusions. VATS-ATP provides a shorter duration of chest tube placement and postprocedure hospital stay.
OBJECTIVE: To determine the demographic pattern, indications and complications associated with tube thoracostomy in Nnamdi Azikiwe University Teaching Hospital (NAUTH) Nnewi. PATIENTS AND METHODS: A 5-year review of case records of patients who underwent tube thoracostomy at NAUTH Nnewi between January 1999 and December 2003. Demographic data, clinical features, duration of drainage, complications and outcomes were analyzed. RESULTS: A total of 65 cases were studied, male: female ratio was 2.4:1. Eighteen patients (27.7%) were below 10 years of age. Infective cases accounted for 63.1% (41) of the cases that had tube thoracostomy. Forty-one patients (63.1%) had tube drainage for 10 days or less. Complication rate was 41.5% (27), mostly mild, with dislodgement of the tube accounting for about half. Failure rate of 13.7% (9) was recorded for the procedure. A mortality of 6.2% (4) was recorded but there was no procedure related death. Seven patients (10.8%) required further surgery. CONCLUSION: Tube thoracostomy is a simple and efficacious procedure for the treatment of pleural space collections. The safety of the procedure can be improved upon by adequate training in the insertion procedure, while proper selection of cases will reduce failure rate and unnecessary morbidity. Early resort to thoracoscopic or open surgery when tube thoracostomy is considered inappropriate or has failed will improve the success rate in the overall management of pleural fluid collections.
Occult pneumothorax is defined as a pneumothorax that is detected by abdominal computed tomographic (CT) scanning, but not routine supine screening chest roentgenograms. Forty trauma patients with occult pneumothorax were prospectively randomized to management with tube thoracostomy (n = 19) or observation (n = 21) without regard to the possible need for positive pressure ventilation, to test the hypothesis that tube thoracostomy is unnecessary in this entity. Eight of the 21 patients observed had progression of their pneumothoraces on positive pressure ventilation, with three developing tension pneumothorax. None of the patients with tube thoracostomy suffered major complications as a result of the procedure. Hospital and ICU lengths of stay were not increased by tube thoracostomy. Patients with occult pneumothorax who require positive pressure ventilation should undergo tube thoracostomy.
STUDY OBJECTIVES: Video-assisted thoracic surgery (VATS) has been widely used in the diagnosis and management of various thoracic diseases. The objective of this retrospective study was to compare the effectiveness of patients undergoing pleurodesis through VATS versus tube thoracostomy for malignant pleural effusion (MPE). Study design was a retrospective review of patients treated in medical centers and hospitals in Taiwan. PATIENTS: One hundred and forty-eight patients with MPE resistant to systemic therapy resulting from various types of carcinomas were retrospectively reviewed. VATS pleurodesis was carried out in 82 and tube thoracostomy with pleurodesis in 66 patients. RESULTS: There were no intraoperative deaths and 4 (2.7 %) in-hospital deaths. One hundred and eighteen (79.7 %) patients were available for follow-up. There were no statistically significant differences in the preoperative characteristics of the two treatment groups, except that the amount of effusion and the percentage of patients with dyspnea were both higher in the VATS treatment group. The duration of chest tube drainage was significantly longer ( P < 0.01) in the tube thoracostomy treatment group (9.1 +/- 3.3 vs. 6.2 +/- 2.3 days). There were no significant differences between the treatment groups with regard to the incidence of surgical complications and perioperative mortality. Median survival was similar in both treatment groups; however, the VATS treatment group had a significantly longer median recurrence-free survival than the tube thoracostomy treatment group. CONCLUSIONS: VATS treatment for MPE appears to be superior to tube thoracostomy for diagnostic accuracy and effectiveness in preventing effusion recurrence; however, the role of these treatments for MPE is palliative, and does not significantly prolong survival time.
BACKGROUND: The purpose of this study is to report our 15-year experience treating chronic empyemas after pulmonary resection and tuberculosis. METHODS: Open-window thoracostomy and thoracomyoplasty were used to treat 40 patients with chronic pleural empyema characterized by residual empyematic cavity, bronchopleural fistula, and persistent pleural infections that were secondary to tuberculosis (n = 22) or pulmonary resection (n = 18). Between 2 and 7 months after thoracostomy, thoracomyoplasty was performed to eliminate a persistent pleural cavity. In 2 patients with postpulmonary resection empyema and a large bronchopleural fistula, intrathoracic transposition of the latissimus dorsi flap and open-window thoracostomy were performed simultaneously to close the fistula. RESULTS: The pleural space was eliminated per primam intentionem in 21 of 22 patients with tuberculosis and in 14 of 18 with a postpulmonary resection empyema. Another myoplasty was performed in an additional 3 patients to eliminate the pleural space. During open-window thoracostomy, the latissimus dorsi muscle was preserved with minimal injury to the anterior serratus muscle. One patient died postoperatively. CONCLUSIONS: Successful treatment of chronic pleural empyema requires adequate timing of surgical procedures. Our two-procedure technique is relatively simple and safe.
Needle thoracostomy is an emergency procedure used to both diagnose and initially treat a tension pneumothorax. We report a case of fatal tension pneumothorax in an intubated patient with chronic obstructive pulmonary disease that was missed by this technique. A tension pneumothorax involving only the right middle and lower lobes was found at autopsy. The autopsy also suggested that needle thoracostomy was misleading because it sampled air from a noncommunicating bulla in the right upper lobe rather than from the pleural space. Tension physiology can exist with only localized collapse of a lung, and diagnostic needle thoracostomy can be falsely negative. When tension pneumothorax is strongly suspected, if empiric thoracentesis does not vent air under pressure, subsequent tube thoracostomy is indicated.
This study compared the complication rates of tube thoracostomy performed in the emergency department (ED) versus the operating room (OR) and the inpatient ward (IW). A retrospective case series of all patients at an urban, university-based level 1 trauma center hospital who received tube thoracostomy for any indication between 1/1/93 and 12/31/93 was conducted. Complications were defined as empyema, unresolved pneumothorax (persistent air leak or residual pneumothorax), persistent effusion, or incorrect placement. The data for age and duration of tube placement were weighted for analysis of variance (ANOVA). A total of 352 tube thoracostomies was placed in 239 patients. Twenty-three patients had three or more chest tubes placed, 65 had two placed, and the remaining 181 had a single tube. Ninety-nine tubes were placed in the ED, 87 in the OR, and 166 on IW. The mean age of patients in the ED was 37 years, and differed significantly (P < .015) from those in the OR (48 years) and the IW (44 years). The duration of tube placement was similar for all groups (mean = 6.5 days). The overall complication rates related to tube insertion were: ED, 14.0%; OR, 9.2%; IW, 25.3%. Significance was achieved when comparing complication rates between the ED and IW, with less complications in the ED (P = .0436). When comparing complication rates between the ED and OR, there was no significant difference (P = .3643). A power calculation indicated too small of a sample size to truly determine an insignificant difference between complication rates between the ED and OR. Placement of emergent thoracostomy tubes in the ED does not result in an increased complication rate as compared to placement in the IW.
PURPOSE: There is still an argument concerning the correct management of pleural empyema. The aim of this study is to compare the effectiveness of closed-tube thoracostomy and open thoracotomy procedures in the management of empyema in children. METHODS: This is a prospective study of 30 patients with parapneumonic empyema who were managed randomly either by closed-tube thoracostomy or open thoracotomy procedures. The two procedures were compared based on the respective times to achieving normal body temperature and breath rates, duration of tube drainage, length of hospitalization, and complication rates. Both groups were also assessed by comparing tube drainage duration, pleural fluid pH, agent pathogen and glucose level. RESULTS: Average tube duration was 7.5 +/- 1.1 days and average hospital stay was 9.5 +/- 1.5 days in the open thoracotomy group. In the closed tube thoracostomy group tube, duration was 13.8 +/- 2.3 days and average hospital stay 15.4 +/- 2.3 days. In the open thoracotomy group 73.3% of the patients had achieved normal body temperature and 66.7 % had a normal breath rate within the first 48 hours. In the closed tube thoracostomy group these rates were 40% and 20%, respectively. In both groups, tube drainage duration was found to be longer in patients whose pleural fluid pH was < 7.2. CONCLUSION: The authors conclude that open thoracotomy is a safe, efficient, and easy method of treatment for pleural empyema in children. It was also observed that pleural fluid pH level is the most important prognostic criteria in pleural empyema.