Active clinical trials for "Respiratory Distress Syndrome"

The prevalence of severe dyspnoea among terminally ill patients has been reported as 70% and 90% for lung cancer and chronic obstructive pulmonary disease (COPD) patients, respectively. Current management to dyspnoea includes opioids, psychotropic drugs, inhaled frusemide, Heliox 28 and oxygen. Conventional oxygen supplementation is often used in these patients, but it may be inadequate, especially if they require high flows (from 30L/min to 120L/min in acute respiratory failure). High-flow oxygen nasal cannula (HFONC) is a new technological device in high-flow oxygen system that consists of an air-oxygen blender (allowing from 21% to 100% FiO2) which generates the gas flow rate up to 55 L/min and a heated humidification system. This technology may have an important role in reducing respiratory distress in do-not-intubate patients. Some HFONC's beneficial effects are the washout of the nasopharyngeal dead space reducing rebreathing of CO2 and improvement oxygenation through greater alveolar oxygen concentration; a better matching between patient's inspiratory demand and oxygen flow; generation of a certain level of positive pressure (PEEP) contributing to the pulmonary distending pressure and recruitment; improvement of lung and airway mucociliary clearance due to the heated and humidified oxygen; and patient's comfort because of the nasal interface allowing feeding and speech. The investigators hypothesize that patients supported with HFONC need less opioids to decrease dyspnoea.

Methamphetamine and amphetamine has various cardiovascular and central nervous system effects. Long-term use is associated with many adverse health effects including cardiomyopathy, hemorrhagic, and ischemic stroke. Death is usually caused by cardiovascular collapse and while amphetamine abuse has been considered as a potential cause of acute respiratory distress syndrome, the reports are usually anecdotal. This investigation considers reviewing individuals with few to zero medical conditions who develop acute respiratory distress syndrome and are methamphetamine positive

Prone positioning has been widely used in critical care medicine to improve oxygenation in patients with acute respiratory distress syndrome (ARDS). This study aimed to compare the effect of pronation on lung ventilation-perfusion matching between COVID19-associated acute respiratory distress syndrome (CARDS) and ARDS from other etiologies (non-CARDS) using electrical impedance tomography (EIT).

This is study 1 of 3 - of the overall project: The ProneTection Quality Improvement Project. The three aims of this study, study 1 are: to establish the training needs critical care clinicians have regarding prone positioning, to investigate the conditions for effective implementation as in an intensive care setting, to develop an education and training package (The ProneTection package) for an interdisciplinary team of clinicians on skin damage prevention of patients in the prone position

RAGE (the receptor for advanced glycation end-products) is a marker of alveolar type I cell injury and a pivotal mediator of acute inflammation and innate immunity. RAGE pathway is highly regulated; the interaction of the transmembrane receptor with its various ligands (e.g. HMGB1, S100A12) ultimately leads to NF-kB activation and RAGE upregulation itself, but precise RAGE functions and intracellular pathways remain underexplored. During ARDS, monocyte and macrophage activation could modulate alveolar inflammation and repair. As RAGE is also expressed at the surface of monocytes/macrophages, we hypothesize that alveolar monocyte/macrophage activation may be mediated through a RAGE-TXNIP (thioredoxin interacting protein)-NLRP3/inflammasome intracellular pathway. The purpose of this observational prospective study is to compare alveolar monocyte/macrophage activation profiles (as assessed by Fluorescence-Activated Cell Sorting (FACS)) in mechanically ventilated patients with or without ARDS.

This pilot observational study will assess changes in pH /PaO2 /PaCO2, Respiratory Rate and device CO2 clearance in the first 24 hours of Extracorporeal CO2 removal (ECCO2R) following tidal volume (Vt), and plateau pressure reduction in patients with mild to moderate ARDS.

Acute respiratory distress syndrome (ARDS) commonly complicates acute illness in ICU. This syndrome is associated with high morbidity and mortality. In management of ARDS patients, lung protective ventilation and prone ventilation are key strategies which have shown survival benefits in recent years. Prone positioning has been reported to have hemodynamic disturbances like hypotension and arrhythmias. The literature till date is unclear with regards to acute hemodynamic changes which can happen during initiation of prone ventilation ,with a few studies suggesting decreasing cardiac output and a few increasing cardiac output. In recent years, trans-esophageal Doppler (TED) has become one of important hemodynamic assessment tool due to its minimal invasiveness, ease of use with its clinical utility established by various studies both in operation theatres and intensive care units. In current study, the investigators would like to evaluate acute hemodynamic effects of prone ventilation with TED in patients of acute respiratory distress syndrome (ARDS).

This study will test the validity of a new approach to assess alveolar recruitability at the bedside in comparison to direct measurements of lung volume and derecruitment.

This studies´ objective is to describe how different PEEP levels affect dead space measured by Bohr´s formula.

There are some criteria such as the most frequently used parameters to predict the failure of non-invasive mechanical ventilation, the APACHE 2 score, the presence of pneumonia and ARDS in the etiology, and no improvement in one hour of treatment. However, APECHE 2 score, which is the broadest of these criteria and includes others, is a complex scoring in which a large number of parameters are evaluated together, dependent on laboratory results and still leaves the final decision to the physician with a complete evaluation. In addition, the APACHE 2 score is a more commonly used method for intensive care patients rather than emergency patients who need a quick decision. Therefore, there is a need for a fast and practical method that can predict NIMV failure and determine early intubation decision in the management of patients admitted to the emergency department with acute dyspnea. Rapid Shallow Breathing Index (RSBI) is a parameter calculated by dividing the respiratory rate by the tidal volume and is used to predict whether patients who are intubated in intensive care unit can be extubated successfully. The aim of this study is to evaluate the success of RSBI in predicting intubation and mortality in patients presented to the emergency department with acute respiratory failure and had NIMV indication.