Active clinical trials for "Respiratory Distress Syndrome, Newborn"

The extracorporeal CO2 removal (ECCO2R) has been recently proposed in case of Acute Respiratory Distress Syndrome (ARDS) in order to reduce pulmonary injuries induced by the mechanical ventilation. A reducing of tidal volume and/or respiratory rate is thus expected using this extracorporeal respiratory support. However, most of existing devices of ECCO2R can apply only a limited extracorporeal flow, often less than 1L/min, which limits the CO2 exchanges and does not allow to reach an ultraprotective ventilation. An extracorporeal flow higher should logically maximalize CO2 removal and allow reducing intensity of mechanical ventilation. Works focused on high-flow ECCO2R (2-3 L/min) in setting of ARDS are therefore mandatory to better understand apprehend the phenomena of gazes changes with this device and confirm the added-value in management of these specific patients.

In preterm infants with neonatal respiratory distress syndrome (RDS), exogenous pulmonary surfactant(PS) replacement therapy is one of the most important therapeutic breakthrough to reduce neonatal incidences of bronchopulmonary dysplasia(BPD) and/or death. But not all preterm infants with RDS can be beneficial. Otherwise, the international neonatal acute RDS (NARDS) collaborative group provides the first consensus definition for NARDS in 2017. And whether or not PS being beneficial in preterm infants with NARDS remains unknown.

The aim of this work is to compare continuous infusion vs on need intermittent boluses of Cisatracurium in the early management of pediatric acute respiratory distress syndrome

Acute Respiratory Distress Syndrome (ARDS) is a life-threatening condition characterized by acute respiratory failure with hypoxemia, noncardiogenic or non-fluid overload pulmonary edema, bilateral diffuse opacities on chest radiograph in the presence of a predisposing factor. In ARDS there is activation of the inflammatory cascade which is very intense and persistent in the severe types. It was highlighted that the inflammatory cytokines in patients with ARDS or sepsis is similar to that observed in COVID-19 positive patients. Emerging therapies include immunomodulation and the administration of mesenchymal stem cells for the modulation of lung repair through the release of cytokines and growth factors that modulate the local inflammatory response. Regardless of the cause of ARDS, the severity of the inflammatory state and fibroproliferative evolution have been shown to be independent predictors of survival and ventilator dependence. Patients suffering from severe forms of ARDS in fact require prolonged mechanical ventilation, which exposes them to ventilator-associated pneumonia (VAP) and the onset of multiorgan insufficiency. The hyperinflammatory state underlying ARDS predisposes to pulmonary fibroproliferation, which in turn increases susceptibility to ventilator dependence and increases the risk of MOF and death. For this reason, the rationale in the use of anakinra is to limit the inflammatory process of ARDS as early as possible, avoiding the progression of lung damage.

Acute Respiratory Distress Syndrome (ARDS) is a syndrome characterized by respiratory distress and refractory hypoxemia caused by pulmonary and extra-pulmonary factors. Despite improvements in diagnosis and treatment in recent years, the mortality rate of severe ARDS is still around 40%. The distribution of lung lesions in ARDS patients is significantly gravity-dependent. Even with lung-protective ventilation strategies, tidal volume is concentrated in the ventral lung region, leading to ventilator-associated lung injury. Prone position ventilation can increase ventilation to the dorsal lung tissue and improve the ventilation-perfusion ratio, thus improving oxygenation. During prone position ventilation in ARDS patients, lung-protective ventilation strategies should be maintained, but with different respiratory mechanics from the supine position, requiring adjustment of ventilator parameters. Electrical Impedance Tomography (EIT) technology can be used for bedside monitoring of mechanically ventilated patients, providing real-time feedback on the patient's ventilation status and having great potential for clinical applications. Investigators believes that EIT monitoring during prone position ventilation in ARDS patients can individualize lung-protective ventilation strategies, minimize alveolar overdistension and collapse, improve the weaning success rate of invasive ventilation, and ultimately improve patient prognosis.

The investigators hypothesized that the use of lung ultrasound (LU) for measuring RDS severity and deciding surfactant treatment thresholds might decrease the incidence of early and late sequelae in the study group. Thus, a timely surfactant therapy would eventually improve short (e.g. Need of mechanical ventilation in the first 3 days) and more long-term outcomes, such as BPD or death. To confirm this hypothesis, the investigators planned an international multicenter randomized controlled study in which preterm infants will be randomized into two groups: one will be managed deciding surfactant treatment of preterm infants with RDS on the basis of a cut-off value of FiO2 as for European guidelines, and one will be managed deciding surfactant treatment using a LU score cut-off and/or FiO2. Primary endpoint will be the reduction in proportion of infants with BPD or death in the group managed with LU compared to the control group

This is an open-label run-in followed by a randomized, double-blind drug treatment study of COVID-19 infected patients requiring inpatient hospital admission.

This is a study to see if an extra 2 weeks of continuous positive airway pressure (CPAP) in stable preterm infants in the neonatal intensive care unit (NICU) can cause increased lung growth and lung function in the infants as measured at 6 months of age by pulmonary function testing.

This is a Phase 3, randomized, masked, active-controlled, multicenter trial designed to determine whether early intratracheal administration of a combination of budesonide with surfactant, as compared to surfactant alone, will reduce the incidence of physiologic bronchopulmonary dysplasia (BPD) or death by 36 weeks' post-menstrual age in extremely preterm infants.

Implement surfactant (BLES®) replacement therapy using the Less Invasive Surfactant Administration technique in six tertiary institutions in Nigeria and evaluate its impact on 72-hour neonatal mortality in premature infants born less than 2000 grams at birth.