Advancements in the Management of Postoperative Air Leak following Thoracic Surgery: From Traditional Practices to Innovative Therapies.

Background: Postoperative air leak (PAL) is a frequent and potentially serious complication following thoracic surgery, characterized by the persistent escape of air from the lung into the pleural space. It is associated with extended hospitalizations, increased morbidity, and elevated healthcare costs. Understanding the mechanisms, risk factors, and effective management strategies for PAL is crucial in improving surgical outcomes. Aim: This review seeks to synthesize all known data concerning PAL, including its etiology, risk factors, diagnostic approaches, and the range of available treatments from conservative measures to surgical interventions, with a special focus on the use of autologous plasma. Materials and Methods: A comprehensive literature search of databases such as PubMed, Cochrane Library, and Google Scholar was conducted for studies and reviews published on PAL following thoracic surgery. The selection criteria aimed to include articles that provided insights into the incidence, mechanisms, risk assessment, diagnostic methods, and treatment options for PAL. Special attention was given to studies detailing the use of autologous plasma in managing this complication. Results: PAL is influenced by a variety of patient-related, surgical, and perioperative factors. Diagnosis primarily relies on clinical observation and imaging, with severity assessments guiding management decisions. Conservative treatments, including chest tube management and physiotherapy, serve as the initial approach, while persistent leaks may necessitate surgical intervention. Autologous plasma has emerged as a promising treatment, offering a novel mechanism for enhancing pleural healing and reducing air leak duration, although evidence is still evolving. Conclusions: Effective management of PAL requires a multifaceted approach tailored to the individual patient's needs and the specifics of their condition. Beyond the traditional treatment approaches, innovative treatment modalities offer the potential to improve outcomes for patients experiencing PAL after thoracic surgery. Further research is needed to optimize treatment protocols and integrate new therapies into clinical practice.

Enhanced recovery after surgery program focusing on chest tube management improves surgical recovery after video-assisted thoracoscopic surgery.

OBJECTIVE: Chest drainage is a standard procedure in thoracoscopic surgery for lung cancer. However, chest tube placement may deteriorate the ventilation capacity and increase difficulty of postoperative management of patients. The study investigated on the effects of enhanced recovery after surgery (ERAS) program focusing on chest tube management on surgical recovery of lung cancer patients. METHODS: The study population consisted of 60 patients undergoing video-assisted thoracoscopic surgery (VATS) after implementation of ERAS program and another group of 60 patients undergoing VATS before implementation of ERAS program. RESULTS: The mean time of first food intake was 12.9 h required for the ERAS group, which was significantly shorter than 18.4 h required for the control group (p < 0.0001). The mean time of out-of-bed activity was 14.2 h taken for the ERAS group, which was notably shorter than 22.8 h taken for the control group (p < 0.0001). The duration of chest tube placement was 68.6 h in the ERAS group, which was remarkably shorter than 92.8 h in the control group (p < 0.0001). The rate overall postoperative complications were notably lower in the ERAS group than in the control group (p = 0.018). The visual analogue score (VAS) scores on the second postoperative day exhibited significant differences between the ERAS group and the control group (p = 0.017). The patients in the ERAS group had a shorter hospitalization stay than those in the control group (p < 0.0001). CONCLUSION: The study suggests the ERAS program focusing on chest tube management could improve surgical recovery, remove patient chest tube earlier, and relieve patient pain after VATS.

Enhanced Recovery Pathway in Lung Resection Surgery: Program Establishment and Results of a Cohort Study Encompassing 1243 Consecutive Patients.

INTRODUCTION: In spite of increasing diffusion, Enhanced Recovery Pathways (ERP) have been scarcely assessed in large scale programs of lung cancer surgery. The aim of this study was auditing our practice. METHODS: A two-step audit program was established: the first dealing with our initial ERP experience in patients undergoing non-extended anatomical segmentectomies and lobectomies, the second including all consecutive patients undergoing all kind of lung resections for NSCLC. The first step aimed at auditing results of ERP on occurrence of postoperative complications and at assessing which ERP components are associated with improved short-term outcomes. We also audited late results by assessing long-term survival of patients in the first step of our study. The second step aimed at auditing on large-scale short-term results of the ERP in a real-life setting. RESULTS: Over a one-year period, 166 patients were included. The median number of ERP procedures per patient was three (IQR 3-4). No postoperative death occurred. The overall adverse events rate was 30%. In multivariate analyzes, the only element associated with reduced adverse postoperative events was chest tube withdrawal within POD2 (OR = 0.21, 95% CI (0.10-0.46)). The 1-, 3-, and 5-year survival rates were 97%, 86.1%, and 76.3%, respectively. In the second period, 1077 patients were included in our ERP; 11 patients died during the postoperative period or within 30 days of operation (1.02%). The overall postoperative adverse event rate was 30.3%, major complication occurring in 134 (12.4%), and minor ones in 192 (17.8%). Respiratory complications occurred in 64 (5.9%). Thoracoscore independently predicted postoperative death, the occurrence of complications (all-kind, minor, major, or respiratory ones). CONCLUSIONS: Compliance to ERP procedures and early chest tube removal are associated with reduced postoperative events in patients with lung resection surgery. In a large setting scale, ERP can be applied with satisfactory results in terms of mortality and morbidity. Thoracoscore is a useful tool in predicting mortality and postoperative adverse events.

Post-operative tranexamic acid decreases chest tube drainage following vertebral body tethering surgery for scoliosis correction.

PURPOSE: Anterior vertebral body tethering (VBT) is a non-fusion surgical treatment for Adolescent Idiopathic Scoliosis requiring chest tube(s) (CT). We sought to assess the efficacy of post-op intravenous tranexamic acid (IV TXA) in reducing CT drainage and retention. METHODS: 35 VBT patients received 24 h of post-op IV TXA (2 mg/kg/h) were compared to 49 who did not. Group comparisons were performed using Wilcoxon rank-sum and chi-squared tests. Multivariate linear regression analysis was used to assess the relationships between TXA and both CT drainage and retention time. RESULTS: There were no group differences at baseline (Table). CTs placed for thoracic (T) and thoracolumbar (TL) curves were assessed separately. For TH CT, there was less total CT drainage in the TXA group (TXA 569.4 ± 337.4 mL vs. Non-TXA 782.5 ± 338.9 mL; p = 0.003) and shorter CT retention time (TXA 3.0 ± 1.3 vs. Non-TXA 3.9 ± 1.4 days; p = 0.003). For TL CT, there was less total CT drainage in the TXA group (TXA 206.8 ± 152.2 mL vs. Non-TXA 395.7 ± 196.1 mL; p = 0.003) and shorter CT retention time (TXA 1.7 ± 1.3 vs. Non-TXA 2.7 ± 1.0 days; p = 0.001). Following multivariate analysis, use of TXA was the only significant predictor of both drainage in T and TL CTs (p = 0.012 and p = 0.002, respectively) as well as T and TL CT retention time (p = 0.008 and p = 0.009, respectively). There were no differences in LOS (p = 0.863) or ICU stay (p = 0.290). CONCLUSION: IV TXA results in a significant decrease in CT drainage and retention time. CT retention is decreased by 1 day for those that receive TXA. LEVEL OF EVIDENCE: III.

Postoperative Air Leaks After Lung Surgery: Predictors, Intraoperative Techniques, and Postoperative Management.

Postoperative air leak is one of the most common complications after pulmonary resection and contributes to postoperative pain, complications, and increased hospital length of stay. Several risk factors, including both patient and surgical characteristics, increase the frequency of air leaks. Appropriate intraoperative tissue handling is the most important surgical technique to reduce air leaks. Digital drainage systems have improved the management of postoperative air leak via objective data, portability, and ease of use in the outpatient setting. Several treatment strategies have been used to address prolonged air leak, including pleurodesis, blood patch, placement of endobronchial valves, and reoperative surgery.

Chest Tube Management Practices by Trauma Surgeons.

BACKGROUND: Chest tube (CT) placement is among the most common procedures performed by trauma surgeons; evidence guiding CT management is limited and tends toward thoracic surgery patients. The study goal was to identify current CT management practices among trauma providers. MATERIALS AND METHODS: We designed a Web-based multiple-choice survey to assess CT management practices of trauma providers who were active, senior, or provisional members (n = 1890) of the Eastern Association for the Surgery of Trauma and distributed via e-mail. Descriptive statistics were used. RESULTS: The response rate was 39% (n = 734). Ninety-one percent of respondents were attending surgeons, the remainder fellows or residents. Regarding experience, 36% of respondents had five or fewer years of practice, 54% 10 y or fewer, and 79% 20 y or fewer. Attendings were more likely than trainees to place pigtail catheters for stable patients with pneumothorax (PTX). Attendings with experience of <5 y were more likely to choose a pigtail than more experienced surgeons for elderly patients with PTX. Respondents preferred standard size CTs for hemothorax and unstable patients with PTX, and larger tubes for unstable patients with hemothorax. Most respondents (53%) perceived the quality of evidence for trauma CT management to be low and cited personal experience and training as the main factors driving their practice. CONCLUSIONS: Trauma CT management is variable and nonstandardized, depending mostly on clinician training and personal experience. Few surgeons identify their practice as evidence based. We offer compelling justification for the need for trauma CT management research to determine best practices.

Optimal management of postoperative parenchymal air leaks.

Air leaks are the most common complication after pulmonary resection. Enhanced recovery after surgery (ERAS) programs must be designed to manage parenchymal air leaks. ERAS programs should consider two components when creating protocols for air leaks: assessment and management. Accurate assessment of air leaks using traditional analogues devices, newer digital drainage systems, portable devices and chest X-rays (CXR) are reviewed. Published data suggests that digital drainage systems result in a more confident assessment of air leaks. The literature regarding the management of postoperative air leaks, including the number of chest tubes, the role of applied external suction, invasive maneuvers and discharge with a portable device is reviewed. The key findings are that a single chest drain is adequate in the majority of cases to manage an air leak, the use of applied external suction is unlikely to prevent or prolong an air leak, autologous blood patch pleurodesis may potentially shorten postoperative air leaks and there is sufficient data to support that patients can safely be discharged with a portable drainage system. There is also literature to support the design of protocols for management of postoperative air leaks. Standardization of postoperative care through ERAS programs will allow for the design of larger RCTs to better understand some of the controversies around the management of postoperative air leaks.

Postoperative chest tube placement after thoracoscopic wedge resection of lung for primary spontaneous pneumothorax: is it mandatory?

BACKGROUND: The goal of present study is to assess the efficiency and feasibility of postoperative care without positioning of chest tube after video-assisted thoracoscopic surgery (VATS) in patients with primary spontaneous pneumothorax (PSP). METHODS: We conducted a prospective randomized trial of patients who have undergone video-assisted thoracoscopic wedge resection surgery for PSP. During the period of April 2015 until December 2016, 119 eligible patients undergoing VATS for PSP were consecutively included. We divided the patients into two groups at random: (I) avoiding chest tube (ACT) group, comprising 58 patients in whom chest tube was not placed intra or postoperatively, and (II) indwelling chest tube (ICT) group, comprising 61 patients in whom chest tube was placed conventionally. Primary end point was to evaluate and analyze the postoperative clinical data and relevant morbidities between two groups. RESULTS: The mean postoperative length of hospital stay (3.57±0.79 vs. 5.39±0.97 days) and postoperative pain (1.37±0.78 vs. 2.53±0.63) in ACT group were significantly lower than in the ICT group (P<0.05). However, there were no statistical differences between two groups regarding other clinical data and postoperative morbidities. There were no patients who experienced significant adverse events postoperatively. CONCLUSIONS: Postoperative management without chest tube placement is safe and feasible approach for patients undergoing thoracoscopic wedge resection for PSP.

Postoperative pulmonary complications and thoracocentesis associated with early versus late chest tube removal after thoracic esophagectomy with three-field dissection: a propensity score matching analysis.

PURPOSE: To evaluate the safety of early chest tube removal after thoracic esophagectomy with three-field dissection. METHODS: This prospective cohort study evaluated patients who underwent thoracic esophagectomy with three-field dissection during 2013-2015. Patients were divided into two groups according to whether they underwent early or late chest tube removal. Propensity score matching in a 1:1 ratio was applied. We compared the incidences of postoperative pulmonary complications and thoracocentesis in the two groups. RESULTS: After propensity score matching, 89 patients in each group were analyzed. There was no significant difference between the groups in the incidences of pulmonary complications or thoracocentesis. Significantly more patients achieved first mobilization within 15 h postoperatively in the early removal group (89.8%) than in the late removal group (52%, p < 0.01). Multivariate analysis revealed that early chest tube removal was not a risk factor for pulmonary complications or thoracocentesis. Independent risk factors for pulmonary complications were a history of pulmonary disease (odds ratio: 0.81 [0.63-0.98]; p = 0.02) and neoadjuvant chemotherapy (odds ratio: 0.67 [0.32-0.96]; p = 0.04). CONCLUSION: Early chest tube removal is as safe and feasible as late chest tube removal after thoracic esophagectomy with three-field dissection.

Comparison of digital and traditional thoracic drainage systems for postoperative chest tube management after pulmonary resection: A prospective randomized trial.

OBJECTIVE: The objective of this study was to evaluate whether a digital thoracic drainage system (group D) is clinically useful compared with a traditional thoracic drainage system (group T) in chest tube management following anatomic lung resection. METHODS: Patients scheduled to undergo segmentectomy or lobectomy were prospectively randomized before surgery to group D or T. A stratification randomization was performed according to the following air leak risk factors: age, sex, smoking status, and presence of emphysema and/or chronic obstructive pulmonary disease. The primary end point was the duration of chest tube placement. RESULTS: No statistically significant differences were found between groups D (n = 135) and T (n = 164) with regard to the duration of chest tube placement (median, 2.0 vs 3.0 days; P = .149), duration of hospitalization (median, 6.0 vs 7.0 days; P = .548), or frequency of postoperative adverse events (25.1% vs 20.7%; P = .361). In subgroup analyses of the 64 patients with postoperative air leak (20 in group D and 44 in group T), the duration of chest tube placement (median, 4.5 vs 4.0 days; P = .225) and duration of postoperative air leak (median, 3.0 vs 3.0 days; P = .226) were not significantly different between subgroups. CONCLUSIONS: The use of a digital thoracic drainage system did not shorten the duration of chest tube placement in comparison to a traditional thoracic drainage system after anatomic lung resection.

Optimizing postoperative care protocols in thoracic surgery: best evidence and new technology.

Postoperative clinical pathways have been shown to improve postoperative care and decrease length of stay in hospital. In thoracic surgery there is a need to develop chest tube management pathways. This paper considers four aspects of chest tube management: (I) appraising the role of chest X-rays in the management of lung resection patients with chest drains; (II) selecting of a fluid output threshold below which chest tubes can be removed safely; (III) deciding whether suction should be applied to chest tubes; (IV) and selecting the safest method for chest tube removal. There is evidence that routine use of chest X-rays does not influence the management of chest tubes. There is a lack of consensus on the highest fluid output threshold below which chest tubes can be safely removed. The optimal use of negative intra-pleural pressure has not yet been established despite multiple randomized controlled trials and meta-analyses. When attempting to improve efficiency in the management of chest tubes, evidence in support of drain removal without a trial of water seal should be considered. Inconsistencies in the interpretation of air leaks and in chest tube management are likely contributors to the conflicting results found in the literature. New digital pleural drainage systems, which provide a more objective air leak assessment and can record air leak trend over time, will likely contribute to the development of new evidence-based guidelines. Technology should be combined with continued efforts to standardize care, create clinical pathways, and analyze their impact on postoperative outcomes.