View clinical trials related to Lung Injury.
Filter by:The Continuous Tracheal Gas Insufflation (CTGI) is a ventilation option of conventional ventilation to reduce or even cancel dead space due to respiratory prostheses. This objective is particularly interesting in the smallest preterm infants in which the volume of anatomical dead space due to prostheses is little different from the tidal volume. The principle of this option is to continuously blow an additional flow of 0.2 L/min at tip of endotracheal tube to purge expired CO2 trapped in the prostheses to have a CO2-free volume of gas available for subsequent insufflation.
Perioperative respiratory complications are a major source of morbidity and mortality. Postoperative atelectasis plays a central role in their development. Protective "open lung" mechanical ventilation aims to minimize the occurrence of atelectasis during the perioperative period. Randomized controlled studies have been performed comparing various "open lung" ventilation protocols, but these studies report varying and conflicting effects. The interpretation of these studies is complicated by the absence of imagery supporting the pulmonary impact associated with the use of different ventilation strategies. Imaging studies suggest that the gain in pulmonary gas content in "open lung" ventilation regimens disappears within minutes after the extubation. Thus, the potential benefits of open-lung ventilation appear to be lost if, at the time of extubation, no measures are used to keep the lungs well aerated. Recent expert recommendations on good mechanical ventilation practices in the operating room conclude that there is actually no quality study on extubation. Extubation is a very common practice for anesthesiologists as part of their daily clinical practice. It is therefore imperative to generate evidence on good clinical practice during anesthetic emergence in order to potentially identify an effective extubation strategy to reduce postoperative pulmonary complications.
Patient-ventilator asynchrony (PVA) has deleterious effects on the lungs. PVA can lead to acute lung injury and worsening hypoxemia through biotrauma. Little is known about how PVA affects lung aeration estimated by electric impedance tomography (EIT). Artificial intelligence can promote the detection of PVA and with its help, EIT measurements can be correlated to asynchrony.
Patients presenting to the emergency department (ED) may require breathing support with machines depending on the condition. Throughout the breathing support, the settings on the breathing machines will be tailored to the patient's requirements. These settings are manually adjusted by trained physicians. Currently, there are machines which can automatically change the settings based on real-time specific information obtained from the patient. This study aims to compare the use of machines which require manual adjustments (open-loop conventional ventilators) and machines which can automatically change the settings (closed-loop automated ventilators). Patients will be carefully selected to ensure no harm is caused whilst delivering the best care. This study will look into the duration when patients are receiving optimum settings and levels of oxygen and carbon dioxide in the blood. The outcomes of this study would allow us to identify methods to improve patient care.
The goal of this observational study is to compare pulmonary health parameter measurements from the VQm PHM™ to existing clinical measurements. The main questions it aims to answer are: - Confirm the performance of non-invasive pulmonary health parameter shunt fraction value found on the VQm PHM™ when compared to available reference measurements. - Confirm the performance of non-invasive pulmonary health parameter pulmonary blood flow, functional residual capacity and physiological dead space found on the VQm PHM™ when compared to available reference measurements.
Postoperative respiratory complications (PRC) represent a major public health issue. Majority of PRCs occur once the patient leaves the post-interventional monitoring room. Identifying patients at risk for PRC is therefore an important step for improving their post-operative care. In this context, any clinical marker making it possible to detect early alteration of the respiratory state in the postoperative phase deserves to be evaluated. This study is based on the hypothesis that measuring indices of respiratory variability which is synonymous with "good respiratory health" can be part of these markers. The measurement of respiratory variability will be done in patients with thoracic lung resection surgery before anesthetic induction and in the postoperative phase after extubation. It will be measured using a belt equipped with an external sensor allowing automatic and continuous analysis of thoracic movement by frequency analysis
1. Construct a structured clinical data and biosample information platform for Chinese patients with acute lung injury/ acute respiratory distress syndrome. 2. By deciphering the heterogeneity of patients with acute lung injury/ acute respiratory distress syndrome, achieve clinical, longitudinal physiological, and biological sub-phenotyping to guide individualized precision treatment and improve prognosis.
Comparative study comparing polypropylene and Polyglactin in suturing of the lung
This will be a prospective observational study where the investigator will scan patients' necks with an ultrasound and look for anatomical landmarks that may help identify the phrenic nerve.
In laparoscopic surgeries; a trocar is inserted through a small incision and an intervention is made into the peritoneal cavity. Approximately 3-4 liters of carbon dioxide (CO2) insufflation (inflating the abdominal cavity with carbon dioxide gas) is applied and the intra-abdominal pressure is adjusted to 10-20 mmHg. Laparoscopic cholecystectomy operation is routinely performed with 12 mmHg and 14 mmHg pressures in our operating room, and the preferred pressure value is; It is determined by the surgical team to be the most appropriate value for the patient and the operation. Both pressure values applied to the patients intraoperatively are within safe ranges. The mechanical power of ventilation (MP) is the amount of energy transferred per unit time from the mechanical ventilator to the respiratory system. Although this energy is mainly used to overcome airway resistance, some of it directly affects the lung tissue, potentially causing ventilator induced lung injury (VILI). To prevent ventilator-associated lung injury, it requires the mechanical ventilator to be adjusted so that the least amount of energy is transferred to the respiratory system per unit time for each patient. In the results obtained in the published studies; increased mechanical strength has been associated with increased in-hospital mortality, higher hospital stay and higher ICU follow-up requirement. The aim of this study is to investigate the effect of two different intra-operative intra-abdominal pressure levels applied to patients who underwent laparoscopic cholecystectomy under general anesthesia on 'Mechanical Power (MP)'.