View clinical trials related to Respiratory Insufficiency.
Filter by:The purpose of this study is to determine whether helmet is effective as device for noninvasive positive pressure ventilation in the weaning from mechanical ventilation.
The aim of the study is to compare, in patients with acute respiratory failure/acute lung injury the efficacy of three different methods of oxygenation to prevent endotracheal intubation : 1. conventional oxygen therapy (O2 conventional) 2. high flow nasal oxygen therapy (O2-HFN) 3. association of high flow nasal oxygen therapy with non invasive positive pressure ventilation (O2-HFN/NPPV).
To research the effect of Bi-Level Positive Airway Pressure (BiPAP) for neonatal respiratory failure.
This study will evaluate a newly developed pediatric mask (known as Pixi) on children aged 2-7 using continuous positive airway pressure (CPAP), or Non-invasive ventilation (NIV) treatment. The participants will undergo a monitored sleep study, followed by a 7 night trial of the Pixi mask in the home environment. During the study usability will be measured through questionnaires filled in by the parent and clinician. The study hypothesis is that the usability of the mask will be superior to the patient's usual mask.
Data collected from this study will be used to evaluate the performance of a monitoring algorithm.
The investigators are studying whether it is safe and effective to provide enteral nutrition to critically ill children via the nasogastric route, as opposed to the nasojejunal route, while they are receiving noninvasive positive pressure ventilation.
Vibration therapy is used for different indications in rehabilitation and sports medicine. So far, vibration therapy has not been investigated within the ICU setting. The investigators created this setting to show safety and applicability of vibration therapy in ICU patients. 30 patients will be stimulated by vibration therapy on two separate days during their ICU stay. Three collectives of equal size will be observed: One with patients on mechanical ventilation without signs of infection or suspected intracranial pressure problems, a second one with patients on mechanical ventilation in addition to signs of systemic inflammation but absence of suspected intracranial pressure problems, and a third one with patients on mechanical ventilation, signs of systemic inflammation in addition to presence of controlled intracranial pressure problems. Typical parameters of hemodynamic status, intracranial pressure and energy metabolism will be recorded for a defined period of time before, during and after vibration therapy itself. Vibration therapy will be combined with protocol based physiotherapy. Our aim is to show the effects of vibration therapy in ICU patients and its safe applicability. ADDITION 06th of May 2011: Additionally we will perform euglycaemic hyperinsulinemic clamp and intervention on one day of ICU stay in 20 patients. Under clamp conditions we will perform a vibration therapy (ProMedVi Vibrosphere™) on patients' legs. On top we will perform electrical muscle stimulation (schwa-medico, MUSKELaktiv™) on one ventral upper leg, randomized chosen. Measuring the local skeletal muscle metabolism will be done by microdialysis in Vastus lateralis on both sides - comparing vibration therapy and vibration therapy combined with electrical muscle stimulation.
Dialysis is used to control the fluid balance and metabolic state of patients with kidney disease. Control of the metabolic state, via electrolytes, can be monitored using labs that are routinely drawn from patients undergoing continuous hemodialysis. Control of fluid removal is much more difficult. This study aims to determine whether changes in the blood pressure associated with breathing correlate with or predict intolerance to fluid responsiveness with continuous dialysis. We hypothesize that a measurement of changes in blood pressure with breathing called arterial pulse pressure variation may be able to predict the ability to remove fluid during continuous renal replacement therapy.
The goal of this project is to determine whether the sleep and circadian rhythms of critically ill patients undergoing mechanical ventilation can be improved through practical strategies that can be employed at the bedside.
Neurally adjusted ventilatory assist (NAVA) is a new concept of mechanical ventilation. NAVA delivers assistance to spontaneous breathing based on the detection of the electrical activity of the diaphragm. The investigators will study the effects of non-invasive NAVA on respiratory muscle unloading critically ill patients.