View clinical trials related to Respiratory Distress Syndrome.
Filter by:Point-of-care ultrasound (POCUS) is the use of ultrasound by the bedside provider in real time to answer a specific question and guide medical management. POCUS can be used to diagnose the severity of neonatal respiratory distress syndrome (RDS) through a lung ultrasound score. Lung ultrasound scores have also been shown to predict if an infant is treated with an initial dose of surfactant. Therefore, using lung ultrasound scores to guide surfactant therapy for RDS will likely lead to earlier surfactant therapy and may improve short-term respiratory outcomes. This study will test this theory by comparing lung ultrasound score-guided surfactant therapy for premature infants with RDS with our current surfactant administration guidelines.
Transfusion-related acute lung injury (TRALI) is a severe complication of blood transfusions. After a transfusion, TRALI develops in 0.08-15% of cases. The incidence of TRALI is 50-100 times higher in critically ill patients compared to the general hospital population. No biomarkers are yet known to detect TRALI. This study will compare blood samples of TRALI patients with blood samples of intensive care patients in order to find possible biomarkers for TRALI.
The aim of this study is to see if giving less invasive surfactant administration (LISA) during high-flow nasal cannula (HFNC) oxygen treatment reduces the need for invasive ventilation in babies with breathing problems born 2-6 weeks early. Less invasive surfactant administration is where surfactant (a naturally produced substance which helps open up the tiny air sacs in the lungs making it easier for babies to breathe) is given into the lungs by putting a small tube into the windpipe through the mouth whilst the baby is awake. The surfactant is given slowly and breathed in. High flow nasal cannula is a form of non-invasive support where a machine delivers warmed, moist oxygen and air through short tubes in the nose. The investigators will be assessing whether a lower percentage of neonates need invasive ventilation within 72 hrs from birth when they have had LISA during HFNC treatment, compared to when they don't receive this treatment. The investigators will also be looking at the length of neonatal unit stay and the cost of the stay. The investigators will also be measuring the lung function of the babies before and after they receive LISA.
All infants born before 26 weeks born in a hospital included in the registry will receive a LU at birth, before the first dose of surfactant. We will register as well the length of IMV, NIV or the need of IMV in the whole sample.
Identification of lung diseases causing neonatal respiratory distress by lung ultrasound as a tool that can replace x-ray .
The study is a multicentric prospective randomised cross-over study. It evaluates the compatibility of patients with the device without altering the routine treatment applied. During this evaluation, either the clinician-adjusted values on the device or the standard pre-set values are used to obtain hourly and 30-minute PVA (Patient Ventilator Asynchrony) recordings. These recordings will be analysed offline to identify the settings used and to compare the hourly and 30-minute PVA (Patient Ventilator Asynchrony) values when synchronisation is automatically set. The relationships and differences between these values will be analysed. For this purpose, the IntelliSync+ option, already available on the device, will be used. This software continuously analyses waveform signals at least a hundred times per second. This allows for the immediate detection of patient efforts and the initiation of inspiration and expiration in real time, thereby replacing traditional trigger settings for inspiration and expiration. If the patient is already synchronised with this option, it will then be possible to switch to traditional synchronisation settings for comparison. Statistical analyses will be conducted using SPSS 24.0, JASP (Just Another Statistical Programme), Jamovi ( fork of JASP), or R software. Initially, all numerical and categorical data will be evaluated using descriptive statistical methods. The distributions of numerical variables will be examined using visual (histograms and probability plots) and analytical methods (Kolmogorov-Smirnov/Shapiro-Wilk tests). Mean/SD (standard deviation) or median/interquartile range (IQR) will be used as measures of distribution. For comparing numerical data that follows a normal distribution, the Student-t test will be used, and for non-normally distributed data, the Mann-Whitney U or Wilcoxon signed-rank tests will be employed. PVA (Patient Ventilator Asynchrony) values will be statistically compared. For the analysis of categorical data, the Chi-Square test will be applied. Bayesian analysis may also be used as necessary during the writing of the study. The results obtained will be interpreted and reported by the researchers. Results with a "p" value below 0.05 will be considered statistically significant.
This study plans to conduct a DEX dose halving study and a normal dose study in 34+0-35+6 GW women with preterm preterm labour. In addition, this study plans to conduct a DEX dose halving study and a normal dose study in 34-38+6 GW preterm pregnant women with GDM or diabetic co-pregnancy to explore the feasibility of dose halving in pregnant women with diabetes mellitus.
Acute respiratory distress syndrome (ARDS) is associated with high mortality, some of which can be attributed to ventilator-induced lung injury (VILI) when artificial ventilation is not customized to the severity of lung injury. As ARDS is characterized by a decrease in aerated lung volume, reducing tidal volume (VT) from 12 to 6 mL/kg of predicted body weight (PBW) was shown to improve survival more than 20 years ago. Since then, the VT has been normalized to the PBW, meaning to the theoretical lung size (before the disease), rather than tailored to the severity of lung injury, i.e., to the size of aerated lung volume. During ARDS, the aerated lung volume is correlated to the respiratory system compliance (Crs). The driving pressure (ΔP), defined as the difference between the plateau pressure and the positive end expiratory pressure, represents the ratio between the VT and the Crs. Therefore, the ΔP normalizes the VT to a surrogate of the aerated lung available for ventilation of the diseased lung, rather than to the theoretical lung size of the healthy lung, and thus represents more accurately the actual strain applied to the lungs. In a post hoc analysis of 9 randomized controlled trials, Amato et al. found that higher ΔP was a better predictor of mortality than higher VT, with an increased risk of death when the ΔP > 14 cm H2O. These findings have been confirmed in subsequent meta-analysis and large-scale observational data. In a prospective study including 50 patients, the investigators showed that a ΔPguided ventilation strategy targeting a ΔP between 12 and 14 cm H2O significantly reduced the mechanical power, a surrogate for the risk of VILI, compared to a conventional PBW-guided ventilation. In the present study, the investigators hypothesize that the physiological individualization of ventilation (ΔP-guided VT) may improve the outcome of patients with ARDS compared to traditional anthropometrical adjustment (PBW-guided VT)
This is a phase IIa, dose-ranging, proof-of-concept study of MRG-001 in patients with ARDS. The aim is to determine the safety and preliminary efficacy of MRG-001 across two dose ranges.
This is a multicenter international observational prospective cohort study. The main questions it aims to answer are: - PRIMARY AIM: To describe the capability of IRVF demodulation at diagnosis of ARDS to predict development of AKI within 7 days from the ARDS onset - SECONDARY AIMS: A)Describe the capability of IRVF demodulation or pattern of IRVF (continuous, pulsatility, biphasic, monophasic) to predict development of AKI within 14 days from the ARDS onset. B) To describe the RD parameters and VexUS in the AKI and no AKI patients over time. C) Describe the impact of invasive mechanical ventilation (IMV) on the intrarenal venous congestion and VexUS., D) Evaluation of effect of CRRT on IRVF pattern, VexUS and parameters. E) Describe the feasibility of renal doppler to assess IRVF in critically ill respiratory patients. F) Evaluate the incidence of AKD and CKD Participants will Adult patients with diagnosis of ARDS admitted to intensive care unit and undergoing invasive mechanical ventilation