No abstract available.
Lung Neoplasms* ; Lung* ; Pneumothorax, Artificial*

No abstract available.
Pneumothorax, Artificial* ; Treatment Failure* ; Tuberculosis, Pulmonary*

No abstract available.
Humans ; Hyalin* ; Hyaline Membrane Disease* ; Infant, Newborn ; Pneumothorax* ; Respiration, Artificial*

Pneumothorax was recognized as a potential hazard of mechanical ventilation shortly after the introduction of the technique of tracheal intubation in the 19th century. Because the gases used in anesthesia are delivered from cylinders and wall outlets at higher than atmoshperic pressure, the possibility of damage to the lung is ever present. Immediate, prompt and adequate management of bilateral tension Pneumothorax are essentil, otherwise the patient dies rapidly. We had a case of bilateral tension Pneumothorax in a 3 year-old boy who underwent a B-E amputation of a severely crushed hand. We report this case along with a review of the literature on Pneumothorax.
Amputation ; Anesthesia ; Anesthesia, General* ; Child, Preschool ; Gases ; Hand ; Humans ; Intubation ; Lung ; Male ; Pneumothorax* ; Respiration, Artificial

Tension pneumothorax is a rare but critical complication of mechanical ventilation. Many researchers regard elevated peak inspiratory pressure as a major etiology for pneumothorax during ventilatory care. Bronchospasm is another adverse events under general anesthesia and it has been reported that the risk of bronchospasm is increased in the children with recent upper respiratory infection. We have experienced a case of recurrent bronchospasm which finally ends up with bilateral tension pneumothorax and debilitating consequences. A 2 year-old boy with a history of croup one week before neuroblastoma excision operation developed several times of bronchospasm attacks during the operation. Episodes of bronchospasm continued in the ICU and complicated with sudden postoperative bilateral tension pneumothorax. Pneumothorax possibly associated with bronchospasm was rarely reported until now. Therefore, we present this case with the literature review.
Anesthesia, General ; Bronchial Spasm* ; Child ; Child, Preschool ; Croup* ; Humans ; Male ; Neuroblastoma ; Pneumothorax* ; Respiration, Artificial

In air leak syndrome, a significant portion of the volume delivered during a positive pressure breath can be lost through the leak. HFOV can achieve adequate ventilation at lower peak and/or mean intrapulmonary pressure than conventional mechanical ventilation (CMV) and has been an effective treatment of already established air leak syndrome. We report a 1-day-old male infant with severe respiratory failure from pneumothorax and pneumomediastinum, who was refractory to CMV with chest tube drainage. HFOV was applied to this patient for 114 hours, and improvement of oxygenation and ventilation as well as significant reduction of pneumothorax followed.
Chest Tubes ; Drainage ; Humans ; Infant ; Male ; Mediastinal Emphysema ; Oxygen ; Pneumothorax ; Respiration, Artificial ; Respiratory Insufficiency ; Ventilation*

Reexpansion pulmonary edema is a rare complication of the treatment of lung collapse secondary to pneumothorax, pleural effusion, or atelectasis. But occasionally, severe morbidity and death may result. Reexpansion pulmonary edema occurs when chronically collapsed lung is rapidly reexpanded by evacuation of large amounts of air or fluid. In the treatment of the chronically collapsed lung, physicians must remember the possible events and prevent the complications. When the difference in airway resistance or lung compliance between the two lungs is exaggerated, conventional mechanical ventilation might lead to preferential ventilation with hyperexpansion of one lung and gradual collapse of the other. Differential ventilation has been advocated to avert this problem. By differential lung ventilation, we successfully treated a severe reexpansion pulmonary edema in two patients. Therefore we suggest that differential lung ventilation is the treatment of choice for severe reexpansion pulmonary edema.
Airway Resistance ; Humans ; Lung Compliance ; Lung* ; Pleural Effusion ; Pneumothorax ; Pulmonary Atelectasis ; Pulmonary Edema* ; Respiration, Artificial ; Ventilation*

Pneumothorax was recognized as a potential hazard of mechanical ventilation after tracheal intubation. Excessive pressure the trachea during general anesthesia could produce lung rupture and pneumothorax. The incidence of pneumothorax has increased as a result of increased application of invasive diagnostic and therapeutic procedures. Emphysematous bleb rupture afterlaryngospasm, bronchospasm, or cough may be causes of pneumothorax. Tension pneumothorax during anesthesia is often difficult to diagnosis, but it needs prompt dignose and treatment. We experienced 3 cases of tension pneumothorax during and after general anesthesia.
Anesthesia ; Anesthesia, General* ; Blister ; Bronchial Spasm ; Cough ; Diagnosis ; Incidence ; Intubation ; Lung ; Pneumothorax ; Respiration, Artificial ; Rupture ; Trachea

Adult ; Carcinoma, Hepatocellular ; surgery ; Cryosurgery ; Female ; Humans ; Liver Neoplasms ; surgery ; Male ; Middle Aged ; Pneumothorax, Artificial

BACKGROUND: At present, robotic surgery is widely used in thoracic surgery, which has higher maneuverability, precision, and stability, especially for small space complex operations and reconstructive surgery. The advantages of robotic lung segment resection under full orifice artificial pneumothorax are obvious. METHODS: Based on a large number of clinical practices, we established a set of surgical methods for 4-arm robotic lung segment resection under a port-only artificial pneumothorax. 98 cases of robotic lung segment resection were performed with this method from January 2019 to August 2022. The clinical experience was summarized. RESULTS: Robotic lung segment resection under port-only artificial pneumothorax has obvious advantages in the anatomy of lung segment vessels and bronchi. It is characterized by less bleeding, shorter operation time, adequate exposure, and flexible operation. CONCLUSIONS This surgical model we propose optimizes the operation mode and technique of lung segment resection, makes each step procedural, reduces collateral damage, and is easy to learn and master, which is believed to cure more lung cancer patients with less trauma.
Humans ; Pneumothorax, Artificial ; Robotic Surgical Procedures ; Pneumonectomy ; Lung Neoplasms/surgery* ; Robotics