View clinical trials related to Extravascular Lung Water.
Filter by:Bedside lung ultrasonography helps to obtain reliable clinical information about lung aeration, that has been categorized by means of the so-called lung ultrasound score (LUS). In critically ill adults, LUS has been related with the outcome both in patients with respiratory and some non-respiratory conditions. Pediatric studies about lung aeration have been done mainly on postoperative cardiac patients and infants with bronchiolitis. In this prospective, observational, multicenter, feasibility and diagnostic accuracy study, we will explore the degree of lung aeration impairment as a potential outcome predictor in critically ill children with a variety of underlying conditions. Children from 1 month to 18 years of age admitted to PICU will be recruited and LUS will be calculated at two time points: at 12 ± 6 hours and at 48-72 hours. Univariate and multivariate statistical analysis will be performed in order to ascertain the outcome influence of clinical factors in general and LUS in particular.
During major surgeries optimal intravenous fluid administration is essential , conventional method may cause fluid overload , increased extravascular Lung water can lead to postoperative cardio-respiratory complications , this study was designed to detect immediate postoperative EVLW with Lung Ultrasonography in patients receiving Central venous pressure Guided and Pleth variability Index (PVI) guided fluids intraoperatively .
Volume controlled ventilation (VCV) and pressure controlled ventilation (PCV) are the common ventilatory modes during OLV undergoing thoracic surgery. A controversy regarding which ventilation mode is better for oxygenation during OLV with PCV enhances oxygenation more than VCV ;given its initial high peak inspiratory flow rates and its rapidly decelerating flow pattern. However, this high peak inspiratory flow rate might also provoke lung injury via shearing and traction forces on the alveoli. Extravascular lung water describes water within the lungs but outside pulmonary vasculature. Lung ultrasound (LUS) assessment of EVLW by B-lines provides a reliable and easy alternative.
Aim. To investigate whether lung ultrasound can be used to detect extravascular lung water (EVLW) overload in the intensive care unit early after surgery. Methods. This prospective study involved 60 patients without known cardiac or pulmonary diseases admitted to the intensive care unit at our hospital after elective abdominal or vascular surgery. The inferior vena cava collapsibility index (IVCcl), oxygen partial pressure (PaO2) and inspired oxygen pressure (FiO2) ratio (PaO2/FiO2), and appearance of B-lines ≤7 mm were determined upon admission to the intensive care unit and at 6, 12, and 24 h later. Fluid overload was defined as IVCcl ≤ 40% and the presence of B-lines ≤7 mm. Tissue oxygenation impairment was defined as a PaO2/FiO2 ratio < 200.
Background : Acute lung injury (ALI) occasionally occurs after pulmonary resection and carries a bad prognosis with a high mortality rate ranging from 20 to 100%. Objectives : 1. to evaluate pre-, intra- and postoperative changes in hemodynamics, oxygenation indices as well as intra- and extravascular lung water using simple thermodilution technique and continuous arterial pressure analysis 2. to test the efficacy of inhaled beta2 -adrenergic agonist versus anticholinergic agents to reduce lung edema in patients undergoing thoracic surgery and in pigs subjected to lipolysacharide-induced ALI. Design of the research protocol: - Prospective controlled trial including surgical patients with high risk factors for ALI (n=60) allocated to receive inhaled drugs (randomised, double-blind, cross-over mode). - Main measurements: Intra-thoracic blood volume, intra- and extra-vascular lung water, hemodynamic parameters (CO, systolic arterial pressure/flow variations, dPmax, MAP, CVP), oxygenation indices (PaO2/FIO2), ventilatory parameters, clinical outcome data, histochemical and pathological data. Glossary CO = cardiac output; dPmax = maximal arterial pressure slope; SAP-V = systolic arterial pressure variations; Flow–V = Flow variations; MAP = mean arterial pressure; CVP = central venous pressure; PaO2=arterial oxygen pressure; FIO2= oxygen inspiratory fraction