View clinical trials related to Critically Ill.
Filter by:The goal of this clinical trial is to compare weaning from mechanical ventilation in critically ill children. The main questions it aims to answer are: - Will weaning with neurally adjusted ventilatory assist (NAVA) mode ventilation result in shorter ventilator day than synchronised intermittent mandatory ventilation (SIMV) mode? - Will weaning with NAVA mode ventilation result in shorter paediatric intensive care unit (PICU) length of stay than SIMV mode? Participants will be randomised to NAVA or SIMV group for weaning from mechanical ventilation, then PICU outcomes from both groups will be collected, analysed and compared.
This study aims to clarify the role of blood indices of systemic inflammation in ICU-admitted patients with abdominal sepsis to assess their diagnostic significance as well as their prognostic value.
The goal of this randomized feasibility trial is to evaluate the feasibility of Mechanical Insufflation-Exsufflation (MI-E) in invasively ventilated critically ill patients. The main question[s] it aims to answer are: - Is MI-E feasible? - Is MI-E safe? Participants in the intervention group will receive: - MI-E - Airway secretions will be removed by endotracheal suctioning, as part of routine airway care. - Manual hyperinflation will only be used when necessary in an emergency situation. Patients in the control group will receive endotracheal suctioning and manual hyperinflation when clinically indicated. The primary outcome is the proportion of delivered MI-E sessions (2 times per calendar day a MI-E session of 3 x 3 cycles of an in- and exsufflation) per patient according to study protocol (feasibility). Secondary outcomes are the total number of serious adverse events in relation to MI-E (safety) and preliminary exploratory data on the need for airway care interventions and clinical outcomes including duration of invasive ventilation, length of stay in ICU and mortality (efficacy).
The purpose of this study is to assess fluid accumulation (FA) in the body using BIA (Bioelectrical Impedance Analysis) in critically ill patients treated in the ICU. This study is an observational cohort with an initial phase that analyzes prospective individual patient data
The aim of this study is to test the effect of 1week of extracorporeal diaphragm pacing (EDP) combined either with or without tilt table verticalization (TTV) on diaphragm function in patients with mechanical ventilation compared to conventional physiotherapy (CPT).
The objective of this prospective observational cohort study is to describe the perception of quality of care of patients or reference companions admitted to a medical-surgical ICU.
Acute kidney injury is a well-recognized complication in critically ill patients. Up to date there is no clinically established method to reduce the incidence or the severity of acute kidney injury. Remote ischemic preconditioning (RIPC) will be induced by three cycles of upper limb ischemia. The aim of the study is to reduce the incidence of AKI by implementing remote ischemic preconditioning (identified by the urinary biomarkers tissue inhibitor of metalloproteinases-2 (TIMP-2) and insulin-like growth factor-binding protein 7(IGFBP7)
Measurement of Whole Blood Lactate Concentrations Whole blood lactate concentrations will be measured at the time of study enrollment and at 24, 48, and 72 hours. Measurement of Plasma Renin Concentrations Serum renin concentration will be measured on blood samples drawn from arterial catheters on supine position right after inclusion. Discarded whole blood samples (waste blood samples) in EDTA tubes are prospectively collected from each patient at the time of study enrollment and at 24, 48, and 72 hours.
Weaning and extubation are essential steps for the management of critically ill patients when mechanical ventilation (MV) is no longer required. Extubation failure (EF) occurs in approximately 10-30% (1,2) of all patients meeting the readiness criteria and have tolerated a spontaneous breathing trial (SBT). EF is associated with prolonged MV, as well as increased morbidity and mortality (2). Therefore, the early identification of critically ill patients who are likely to experience EF is vital for improved outcomes. EF can result from different factors (respiratory, metabolic, neuromuscular), particularly cardiac factor, and can be caused by the inability of the respiratory muscle pump to tolerate increases in the cardiac and respiratory load (1,3). Respiratory drive represents the intensity of the neural stimulus to breathe. In mechanically ventilated patients, it can be abnormally low (i.e., suppressed or insufficient) or abnormally high (i.e., excessive), and thus result in excessively low or high inspiratory effort, leading to potential injury to the respiratory muscles (i.e., myotrauma) (4,5) or to the lungs. A high incidence of abnormal drive (low or high) may explain the high incidence of diaphragm dysfunction at time of separation from mechanical ventilation (6). Airway occlusion pressure (P0.1) is the drop in airway pressure (Paw) 100 milliseconds after the onset of inspiration during an end-expiratory occlusion of the airway (7). P0.1 measurement is not perceived by the patient and does not influence respiratory pattern. It is, in theory, a reliable measure of respiratory drive because the brevity of the occlusion explains that it is not affected by patient's response to the occlusion and it is independent of respiratory mechanics (8). P0.1 has also been correlated with inspiratory effort (9, 10) and it has been shown that in patients under assisted mechanical ventilation P0.1 might be able to detect potentially excessive inspiratory effort (11). P0.1 is a non-invasive measure and clinically available at bedside since currently nearly all modern ventilators provide a means of measuring it. Originally, a high P0.1 during a spontaneous breathing trial was associated with failure, suggesting that a high respiratory drive could predict weaning failure. However, only a few and old clinical studies investigated the association between P0.1 and extubation failure (EF) and were not conclusive (12,13). We hypothesized that patients with EF would have increased P0.1 values during spontaneous breathing trial (SBT). Therefore, the aims of our study will be to (1) to evaluate the ability of changes in P0.1 (Delta-P0.1) during SBT to predict EF and (2) to assess if Delta-P0.1 is an independent predictor of EF.
In this pilot study we will study the feasibility of providing and following ICU patients with smart technology for three months after discharge from a general ward of the Leiden University Medical Centre.