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. 2024 May 13;60(5):802. doi: 10.3390/medicina60050802

Table 5.

The main articles cited in this study.

Ref. Authors Year Study Focus Key Findings Relevance to PAL Management
[1] Geraci TC, et al. 2021 Postoperative air leaks in lung surgery Identified predictors, intraoperative techniques, and management strategies. Insights into comprehensive management of PAL.
[2] Aprile V, et al. 2023 Conservative management of PAL Reviewed intraoperative prevention and conservative management strategies. Highlights the importance of non-surgical management.
[3] Cerfolio RJ, et al. 1998 Management algorithm for air leaks post-pulmonary resection Developed a prospective management algorithm. Basis for many current protocols; emphasizes early management.
[4] Brunelli A, et al. 2004 Predictors of prolonged air leak after lobectomy Investigated patient and surgical factors influencing air leak duration. Identifies risk factors to inform surgical planning.
[6] Sridhar P, et al. 2020 Prevention of postoperative prolonged air leaks Explored preventive measures for PAL after pulmonary resection. Offers insights into effective preventive strategies.
[10] Brunelli A, et al. 2010 Scoring system to predict risk of prolonged air leaks Introduced a scoring system based on patient-specific factors. Helps in preoperative planning and risk assessment.
[13] Orsini B, et al. 2015 Validation of prolonged air leaks score in VATS Validated a scoring system for predicting PAL risk in VATS procedures. Assists in assessing risk and planning VATS procedures.
[15] French DG, et al. 2018 Management of parenchymal air leaks Discussed optimal management techniques for parenchymal air leaks. Provides guidelines for effective postoperative care.
[19] Yang HC, et al. 2018 Novel air leak test using surfactant for lung surgery Introduced a novel test for detecting air leaks during surgery. Enhances intraoperative detection and management.
[20] Kang DY 2020 Intraoperative air leak detection via CO2 insufflation Demonstrated safe and practical air leak site detection during surgery. Improves intraoperative detection and potential outcomes.
[21] Okusanya OT, et al. 2018 Infrared intraoperative fluorescence imaging Explored the use of indocyanine green for intraoperative leak detection. Offers advanced technique for enhancing leak detection.
[24] Lequaglie C, et al. 2012 Use of sealant to prevent prolonged air leaks Evaluated the effectiveness of sealants in preventing prolonged air leaks. Supports the use of biological sealants in surgery.
[27] Li SJ, et al. 2017 Fissureless technique for decreasing PAL Reviewed the efficacy of avoiding pulmonary fissure dissection. Suggests techniques that minimize surgical air leaks.
[33] Brunelli A, et al. 2013 Tailored suction in chest drains Compared tailored suction strategies for managing air leaks. Influences chest drain management to reduce PAL duration.
[34] Alphonso N, et al. 2005 Suction vs. non-suction to underwater seal drains Evaluated the impact of suction on underwater seal drains post-lung resection. Questions the necessity of suction in drain management.
[35] Holbek BL, et al. 2019 Effects of low suction on digital drainage devices Investigated the impact of low suction settings on digital drainage devices. Supports refined suction strategies in postoperative care.
[48] Marshall K, et al. 2020 Pain management in thoracic surgery Reviewed methods for effective pain management in thoracic surgeries. Emphasizes the importance of pain management in PAL recovery.
[50] Filosso PL, et al. 2010 Digital air leak monitoring Reviewed the impact of digital monitoring systems on managing air leaks. Highlights advancements in monitoring technologies.
[54] Arai H, et al. 2018 Evaluation of digital drainage systems Compared outcomes with digital vs. traditional drainage systems. Demonstrates benefits of digital systems in clinical practice.
[56] Yagi S, et al. 2022 Clinical utility of digital vs. analog drainage systems Digital systems reduced the duration of chest drainage compared to analog. Shows efficacy of digital systems in managing PAL.
[62] Lee SA, et al. 2021 Digital thoracic drainage systems Evaluated clinical application of digital systems for air leak management. Highlights precision and quantification advantages of digital systems.
[64] Joshi JM 2009 Ambulatory chest drainage Discussed the efficacy and safety of ambulatory systems for managing PAL. Advocates for patient mobility and comfort during recovery.
[68] Liberman M, et al. 2010 Persistent air leak management with chemical pleurodesis Reviewed incidence and risk factors for persistent air leaks and pleurodesis use. Highlights chemical pleurodesis as a valuable management option.
[70] Park EH, et al. 2019 Doxycycline vs. talc for chemical pleurodesis Compared the efficacy and safety of doxycycline and talc in pleurodesis. Offers insights into safer pleurodesis options.
[77] Talebzadeh H, et al. 2023 Glucose solution for pleurodesis Compared 50% glucose solution to bleomycin for pleurodesis efficacy. Suggests less common but effective pleurodesis agents.
[81] Hugen N, et al. 2022 Autologous blood patch for prolonged air leaks Systematic review on the efficacy of autologous blood patch for PAL. Validates the effectiveness and safety of the blood patch method.
[93] Skevis K, et al. 2022 Plasma pleurodesis Explored fresh frozen plasma as an alternative pleurodesis method. Introduces novel applications of plasma in pleurodesis.
[97] Andreetti C, et al. 2010 Autologous platelet gel for persistent air leaks Investigated the efficacy of platelet gel in sealing air leaks post-lung resection. Suggests a novel and less invasive option for managing PAL.
[99] Pinezich MR, et al. 2024 Lung-mimetic hydrofoam sealant Developed a biodegradable sealant that mimics lung tissue for treating air leaks. Represents innovative bioengineering approach to PAL management.
[101] Mahajan AK, et al. 2013 Use of endobronchial valves for persistent air leaks Demonstrated the effectiveness of endobronchial valves in managing persistent air leaks post-thoracic surgery. Introduces a minimally invasive method to control PAL, enhancing recovery and reducing the need for further surgical intervention.
[105] Chen X, et al. 2021 Stem cell therapy for pulmonary disorders Reviewed potential of mesenchymal stem cells in treating pulmonary disorders including PAL. Emerging research into regenerative options for PAL treatment.