View clinical trials related to Intensive Care Unit.
Filter by:Using data from the French National Uniform Hospital Discharge Database (systematically collecting administrative and medical information related to all hospitalized patients in France for care reimbursement purposes), the present study retrospectively assesses the activity of the French Intensive Care Unit (ICU)(1,594,801 ICU admissions): - In-ICU and in-hospital mortality rates - Length of stay in ICU and hospital - Mortality-associated factors during the study period. - Number of organ failures - Bed occupancy, - Regional variations in previous indicators
Randomized clinical trial that aims to evaluate the impact of the use of a diary in patients and relatives of patients admitted to an ICU in relation to usual practice in terms of health-related quality of life, the post-traumatic stress and anxiety/depression at 2, 6 and 12 months after ICU discharge.
This study aims to compare the accuracy of the total thoracic fluid content (TFC) measured by electrical cardiometry with accuracy of lung ultrasound score in prediction of weaning outcome in mechanically ventilated patients.
Although several studies are conducted in the general population researching the clinical and laboratory parameters predicting the progression to severe disease in COVID-19, the data are very few in obstetric patients. Therefore,the investigators aimed to evaluate the characteristics, prognosis, laboratory parameters, and mortality of obstetric patients followed up in the intensive care unit (ICU) due to severe COVID-19 disease and to determine the factors affecting mortality.
The intensive care units is of the main components of modern healthcare systems. Formally, its aim is to offer the critically ill health care fit to their needs; ensuring that this health care is appropriate, sustainable, ethical and respectful of their autonomy. Intensive medicine is a cross-sectional specialty that encompasses a broad spectrum of pathologies in their most severe condition, and specifically has as its foundation the practice of comprehensive care of the patient with organ dysfunction and susceptible to recovery. Although critically ill patients are a heterogeneous population, they have in common the need for a high level of care, often requiring the use of high technology, specific procedures for the support of organ dysfunction and the collaboration of other medical and surgical specialties for their management and treatment. Since their origins in the late 1950s, intensive care units have been adapting to the changes arising from the best scientific evidence. In the late 1990s and early 2000s, there were some successful clinical trials published that had tested alternative management strategies in the ICU. Mechanical ventilation is an intervention that defines the critical care specialty. Between 1970 and the 1990s, the management focused on normalizing arterial blood gas with aggressive mechanical ventilation. Over the ensuing decades, it became apparent that performing positive pressure ventilation worsened lung injury. The pivotal moment in the mechanical ventilation story would be the low versus high tidal volume trial. This trial shifted the focus away from normalizing gas exchange to reducing harm with mechanical ventilation. Further, it paved way for further trials testing ventilation interventions (PEEP strategy, prone position ventilation) and nonventilation interventions (neuromuscular blockade, corticosteroids, inhaled nitric oxide, extracorporeal gas exchange) in critically ill patients. That evidence-based intensive care medicine has undoubtedly had an influence on the outcome of critically ill patients, in general, and, particularly, of patients requiring mechanical ventilation. Temporal changes in mortality over the time have been scarcely reported for patients admitted to intensive care unit. Objective of this study is to estimate the changes over the time in several outcomes in the patients admitted to an 18-beds medical-surgical intensive care unit from 1991 (year of start of activity) to 2026
Brain injury is one of the complications in COVID-19 intensive care unit (ICU) survivors, though the precise underlying mechanism is unclear. It is likely caused by a combination of prolonged hypoxia, a massive systemic inflammatory response, direct infection of the brain and small vessel vasculitis in combination with widespread hypercoagulopathy and thrombosis. Using novel MRI techniques, blood-brain barrier (BBB) permeability, as well as other microstructural and microvascular properties of the brain tissue, will be assessed non-invasively in COVID-19 ICU survivors approximately one year after ICU admission and compared to serial clinical and laboratory measurements of hypercoagulation and inflammation during the (ICU) admission. This study aims to relate factors of hypercoagulability, inflammation or general illness itself (all during ICU admission) to microstructural and microvascular abnormalities on follow-up brain advanced 3T and 7T MRI in COVID-19 ICU survivors. In addition, neuropsychological tests and an objective smell/taste test will be used to evaluate neuropsychological status and sense of smell/taste. By gaining more insight into the pathogenesis of brain injury, the treatment of COVID-19 patients in the acute phase might be improved.
We aimed to study the efficacy of Noninvasive Hemoglobin Monitoring by Spectrophotometry in monitoring hemoglobin level in trauma patients for conservative management.
Hospital-acquired infections (HAI) have been shown to increase length of hospital stay and mortality. Infections acquired during a hospital stay have been shown to be preventable. The skin of patients is considered a major reservoir for pathogens associated with hospital-acquired infections, and has been suggested as a potential target for interventions to reduce bacterial burden and subsequent risk of infection. The use of daily Chlorhexidine (CHG) bathing in intensive care patients has been advocated to reduce many of the infections in critically ill patients. However, the effectiveness of CHG bathing to reduce ICU infections has varied considerably among published trials, making the effectiveness of CHG bathing in ICU patients uncertain.
Pain is a major problem in Intensive Care Unit (ICU). Adequate pain management not only means decreasing the pain intensity, but also improving the functionality and allowing the early mobilization that is a prerequisite for improving recovery and decreasing the risk of complications in ICU. The complex problems involved in pain, analgesic interventions, and outcome have been emphasized in several surveys over the past decades, but apparently with only small improvements, despite the existence of several guidelines for perioperative pain management. Regional analgesia techniques (peripheral and neuraxial nerve blocks) have the potential to decrease the physiological stress response to trauma or surgery, reducing the possibility of surgical complications and improving the outcomes. Recent studies suggested that surgical and trauma ICU patients receive opioid-hypnotics continuous infusions to prevent pain and agitation that could increase the risk of posttraumatic stress disorder and chronic neuropathic pain symptoms, and chronic opioid use. Also they may reduce the total amount of opioid analgesics necessary to achieve adequate pain control and the development of potentially dangerous side effects. The use of the regional anesthesia technique in the ICU, however, can, in part, be limited by the presence of hemodynamic instability, bleeding diathesis, and by the fear of the performing procedures potentially associated with significant side effects in heavily sedated patients. Although regional anesthesia emerges as a new and very interesting player for pain management in ICU, today very few data exists about the use of RA (including PNB and neuraxial nerves blocks) by the practicians in ICU/stepdown units. The main objective of this study is to assess the use of RA for pain management both initiates in the operative room for surgical patients then transferred in ICU/stepdown units and performs directly by the practicians in ICU/stepdown units, in several french units.
The ORI™ or Oxygen Reserve Index (Masimo, Irvine, CA, USA) is a non-invasive monitoring system for measuring oxygen reserve. It is a digital sensor (almost identical to the SpO2 sensor) which allows an analysis of the absorption of arterial, venous and capillary components. The measured index, unitless, ranges from 0.00 to 1.00 for moderate hyperoxia levels: from 100 to 200 mmHg. It can alert the clinician to a drop in oxygen stores via the drop in SvO2 before a drop in SpO2 is observed. We propose to carry out a study to elucidate correlation between ORI™ and PaO2.