View clinical trials related to Respiratory Failure.
Filter by:Intubation in the intensive care unit is a standard procedure with a high risk of adverse events such as hypoxaemia and cardiovascular instability. However, it is demonstrated that HFNO (High Flow Nasal Oxygen) for pre and perioxygenation is feasible and, in many situations, prolongs the safe apnoeic period after anaesthesia induction. Previous data of the use of HFNO during intubation of the critically ill is conflicting. With the new device Optiflow Switch, which allow its combination with NIV or tight facemask with perioxygenation, we aim to evaluate whether this could reduce intubation-related hypoxaemia and other adverse events. The general purpose of this project is to compare the addition of Optiflow Switch for pre- and perioxygenation to traditional preoxygenation using a tight-fitting mask or NIV during intubation in adult intensive care patients in a prospective before-and-after study design.
This study aims to evaluate the use of POCUS to assess diaphragmatic function and its association with clinical outcomes in patients with respiratory failure who are admitted to the emergency department.
Nearly 25% of Americans die in intensive care units (ICUs). Most deaths in ICUs are expected and involve the removal of ventilator support, or palliative withdrawal of mechanical ventilation (WMV). Prior work by the Principal Investigator (PI) found that patient suffering can be common; with 30-59% of patients going through this process experiencing distress. Thus, experts and national organizations have called for evidence to inform guidelines for WMV. This research study will 1) develop and refine a Comfort Measures Only Time out (CMOT) intervention consisting of a structured time out with check-list protocol for the ICU team (nurse, physician, respiratory therapist) to improve the process of WMV. and 2) Pilot test the CMOT intervention in 4 ICUs (2 medical/2 surgical) among 40 WMV patients.
The goal of this randomized active-controlled study is to investigate the role of high velocity nasal insufflation (HVNI) in the immediate post-extubation period and compare it with non-invasive positive pressure ventilation (NIPPV) as regards to weaning success rate. The study will recruit those who have been on invasive mechanical ventilation for at least 3 days and with a high risk of weaning failure.
Ninety adult patients from both gender, with acute respiratory failure, intubated and mechanically ventilated. Their ages ranged from 50 to 70 years. They were selected from Intensive Care Unit (ICU), Department of Chest Diseases, Cairo University Hospitals. They have randomly assigned into three equal groups. Group (A): trained by threshold IMT device plus routine physical therapy. Group (B): trained by adjusting MV trigger sensitivity plus routine physical therapy. Group (C): only received routine physical therapy. (Negative inspiratory force NIF, arterial blood gases, P/F ration, respiratory rate RR, tidal volume VT, and rapid shallow breathing index RSBI) were measured before the study and at the end of the study (just before weaning for successfully weaned patients, or on the 10 day of intervention for failed weaning patients).
This study assesses the feasibility of digital data collection for a randomized controlled trial in a quaternary pediatric intensive care unit and the effect of two commonly used mechanical ventilation modes on gas exchange (CO2) in children over 2 days after randomization. This is a single-center, open-labelled, randomized controlled trial with two parallel 1:1 treatment arms: pressure controlled (PC) vs pressure-regulated volume controlled (PRVC) mechanical ventilation modes. Use to routine digital data is essential to enable health learning systems and to provide rapid clinical trials readiness, as the pandemic has demonstrated. Despite availability of data to perform digital trials in PICU settings, these are yet scarcely done.
The goal of this diagnostic study is to validate estimation of inspiratory muscle pressure by an artificial intelligence algorithm compared to the gold standard, the measure from an esophageal catheter balloon, in patients under assisted mechanical ventilation. The main questions it aims to answer are: • Are inspiratory muscle pressure estimates from an artificial intelligence algorithm accurate when compared to the direct measure from an esophageal balloon? Participants will be monitored with an esophageal balloon and with an artificial intelligence algorithm simultaneously, with inspiratory muscle pressure estimation during assisted mechanical ventilation with decremental levels of pressure support.
Measurements of esophageal pressure (Pes) as surrogate for pleural pressure are routinely performed in selected ICU patients to facilitate lung-protective ventilation and assess breathing effort. Pes is clinically measured via a nasogastric esophageal catheter. Current techniques involve balloon catheters but have some important disadvantages as they could deflate over time and require a very precise positioning and filling volume. A solid-state sensor does not have disadvantages associated with balloon catheters and may therefore be a useful alternative in clinical practice. This method-comparison study in adult mechanically ventilated ICU patients evaluates the accuracy of Pes measured using an esophageal catheter with a solid-state sensor as compared to a balloon catheter as reference standard.
We hypothesized that diaphragm thickness is concerned in acute respiratory failure of COVID19 patients and its ultrasound measure at the begining of hospitalisation is a good predictor of poor outcome. A prospective observational non intervention study is designed.
the study compares two non-invasive respiratory support modalities ie CPAP and High Flow nasal cannula oxygen for the treatment of severe hypoxemic respiratory failure attributed to Community acquired Pneumonia.