Active clinical trials for "Critical Illness"

The aim of this prospective randomized trail is to compare nasotracheal versus orotracheal intubation in critically ill patients. We aim to study: required sedation depth rate of spontaneous breathing extend and possibility of physiotherapy vasopressor and sedative drug doses Participants are randomized 1:1 to receive either nasotracheal or orotracheal intubation.

Ambroxol is a mucolytic containing an active N-desmethyl metabolite of bromhexine. It is approved by both the U.S. FDA and EMA to be marketed under several formulations including oral, nasal, oro-mucosal, rectal and intravenous formulations. One of ambroxol's authorized use is for the treatment of bronchopulmonary infections. In addition, it has been found over the decades to have other multi-pronged properties such as local anaesthesia, anti-inflammatory and anti-oxidant effects. It also stimulates surfactant production in Type II pneumocytes, thus preventing atelectasis in pneumonia. Ambroxol has demonstrated a wide safety profile and is an extensively studied drug in terms of safety with the commonest side effects being skin rashes, allergies, nausea, vomiting, abdominal pain and dyspepsia. Severe pneumonia is is defined by the American Thoracic Society (ATS) as pneumonia that requires ICU admission and specifically fulfils one of two major criteria, or three out of nine minor criteria as per recommended in the latest ATS guideline. This study aims to investigate the effects of using intravenous ambroxol as an adjunct therapy on the resolution of severe pneumonia. The improvements in modified Clinical Pulmonary Infection Score (CPIS) will be used as a surrogate for resolution of severe pneumonia. Modified CPIS is a clinical score of 0-12 based on 6 clinical features: volume and character of tracheal secretions, chest radiograph infiltrates, body temperature, leukocyte count, oxygenation index, and microbiology results. Traditionally, CPIS score has been used to facilitate the diagnosis of VAP where a cut-off point of >6 is used to denote possible pneumonia. Interestingly, Luna et al has found that serial improvements in CPIS score can be successfully used as a surrogate for pneumonia resolution with good correlation with eventual survivability. This study will also explore the effects of using ambroxol on other clinical outcomes of patients with severe pneumonia, including ICU mortality, duration of ICU stay, length of mechanical ventilation and incidence of reintubation within 48 hours. If this adjunct treatment is able to reduce duration of ICU stay and length of MV, it will not only directly impact the patients' short & long term outcomes but will also confer logistical benefits in terms of saving resources and reducing healthcare economic burden while optimizing ICU turnover rates.

Tracheal intubation, which is one of the most commonly performed procedures in the care of critically ill patients in intensive care unit, is associated with a high incidence of complications. Approximately 30% of emergent tracheal intubations in the ICU are associated with complications like hypotension, hypoxia, failed tracheal intubation, esophageal intubation, airway trauma, aspiration, cardiac arrest, and death. An observational study of tracheal intubation practices in critically ill patients across twenty-nine countries found cardiovascular instability to be the commonest among these adverse peri-tracheal intubation event. Tracheal intubation performed in a controlled, non-emergent setting, is associated with few complications. However in ICU, conditions like underlying shock, respiratory failure, metabolic acidosis, and other patho-physiological changes contribute to the increased peri-tracheal intubation complications. Post tracheal intubation hypotension frequently occurs within a few minutes following tracheal intubation. The additive effects of hypovolemia, the suppression of the endogenous activation of sympathetic response by the anesthetics drugs as well as the intrathoracic positive pressure due to mechanical ventilation are implicated in this cardiovascular collapse after tracheal intubation in critically ill patients. Post-tracheal intubation hypotension has been shown to be associated with higher in-hospital mortality and longer ICU and hospital length of stay. Hence patient optimization prior to tracheal intubation may be important to ensure hemodynamic stability to minimize further deterioration during tracheal intubation. Few techniques to optimize hemodynamics before tracheal intubation commonly involve the use of intravenous fluids and vasopressor medications; however, there are no standards of care guiding these practices. Jaber et al included pre tracheal intubation fluid loading (isotonic saline 500 ml or starch 250 ml) as a part of tracheal intubation care bundle management to show improved outcomes. However it was an observational study and also it was not possible to evaluate the contribution of the individual hemodynamic components of the bundle given the concurrent implementation of other interventions. And a recent study by Janz et al showed that pre loading with a 500-mL bolus of crystalloids before tracheal intubation did not identify any benefit. However this trial was stopped early for futility and moreover the volume of intravenous fluids that patients received before enrolment was not recorded. Few trials have used vasopressor bolus prior to tracheal intubation to avoid post tracheal intubation hypotension or use of prophylactic use of vasopressors in preventing post spinal hypotension. However currently, there are no randomized trials or evidence-based guidelines to support the choice between fluid loading or vasopressors for the tracheal intubation of critically ill adults. We would like to conduct a randomised controlled study comparing the effects of fluid bolus or low dose vasopressor given prior to tracheal intubation on post tracheal intubation hypotension among critically ill adults.

Intensive Care Units (ICU) are stressful places where life-and-death medical decisions are made and patients' surrogate decision-makers are exposed to potentially traumatic experiences. As the number of life-prolonging procedures administered to the patient rises, the patient's quality of life falls. Thus, interventions to improve the quality of life and care of ICU patients are needed. EMPOWER is a cognitive-behavioral, acceptance-based intervention for patient surrogate decision-makers to reduce experiential avoidance of unpleasant thoughts and feelings related to thinking about patient death. By reducing surrogate's experiential avoidance, EMPOWER removes a barrier to advance care planning. EMPOWER aims to improve patient quality of life through enhancing value-directed end-of-life care while also empowering surrogates to cope with a loved one's potential impending death and adjust following the patient's ICU death or discharge. Specifically, investigators aim to: 1: Develop EMPOWER for surrogate decision-makers of critically ill patients who are at risk of becoming incapacitated or are currently unable to communicate in the ICU. Key informants, including bereaved ICU patient caregivers and clinicians, will be asked to evaluate the EMPOWER intervention manual to increase its potential tolerability, acceptability and efficacy. 2: Determine feasibility, tolerability, acceptability, and preliminary effects of EMPOWER on surrogate mental health. 3: Estimate the effects of EMPOWER on patient outcomes in the months following the ICU admission. Hypothesis 1: Surrogate decision-makers who receive EMPOWER will have significantly lower levels of peritraumatic distress when compared to usual care condition at post intervention assessment (T2). Hypothesis 2: Patients whose surrogates receive EMPOWER will have more value-concordant care, better quality of life, and better quality of death. EMPOWER was first evaluated though a single site open trial (n=10). All 10 participants in the open trial phase received EMPOWER. Feedback from clinicians, bereaved stakeholders and results from the open trial were then used to refine the intervention and launch a multi-center randomized controlled trial to examine clinical superiority of EMPOWER to enhanced usual care. In order to adapt to restrictions in ICU visitation and meet the needs of family caregivers impacted by the COVID-19 pandemic, we then launched a second single arm open trial and paused recruitment for the RCT. All participants recruited during the open trial COVID-19 phase received EMPOWER. Beginning in August 2021, we resumed the RCT portion of the trial to meet the initial recruitment goals of the study (total n of RCT & COVID-19 open trial=60).

The survival and the outcomes of critically ill patients are strongly influenced by insulin-therapy and nutritional support. The GLUCOSAFE 2 pilot study, aims to test the performance and the security of the new GLUCOSAFE 2 software, developed by the model-based medical decision support of Aalborg University (Denmark) and adapted to the clinical needs in the intensive care unit (ICU) of the Geneva University Hospital (HUG). This new device is based on a mathematical model of the glucose-insulin metabolism and attempts to give advices for better glycaemia control and nutritional therapy. The GLUCOSAFE 2 study hypothesizes that the use of the Glucosafe 2 software will allow better glycaemia ("Time-in-target") control and better achievement of nutritional energy and protein targets in comparison to the local protocols.

Critically ill patients with acute kidney injury and fluid overload who are frequently treated by fluid removal during dialysis are at an increased risk of complications and death. Both slower and faster rates of fluid removal may cause injury to the vital organs. This proposed clinical trial will examine the feasibility of restrictive compared with a liberal rate of fluid removal in order to develop effective treatments for fluid overload and to improve the health of critically ill patients.

The purpose of this study is to test a multi-faceted anemia treatment plan to reduce the severity of anemia and to promote hemoglobin and functional recovery in adults who have been in the intensive care unit (ICU).

Multicenter, prospective, randomized controlled trial providing mobile health supported physical rehabilitation to 120 patients who have been critically ill with COVID-19 and who complete at least one exercise session.

At present, there is no clinical reference data on how much the concentration of calcifediol in the blood increases after supplementing with vitamin D for Taiwanese ICU patients. This study aims to investigate the effects of enteral supplementation of vitamin D in critically ill patients with vitamin D deficiency. The results of the study are expected to provide clinical reference data to intensivists to select adequate dosage of vitamin D supplementation for their patients with vitamin D deficiency. This is a multi-center, randomized clinical trial. ICU patients will receive vitamin D level examination. If the subject's blood calcifediol concentration is less than 20 ng / mL, the subject will be included in this clinical trial. Patients who are suitable to enteral supplement of vitamin D will be randomly divided to group Control (no vitamin D supplement) and group Vitamin D (enteral supplement of 569,600 IU vitamin D). The vitamin D level will be measures at specific time points.

Critically ill patients experience major insults that lead to increased protein catabolism. Hypermetabolism occurs early and rapidly during the first week of critical illness to provide amino acids for the production of energy via gluconeogenesis, and also for the synthesis of acute phase proteins and repair of tissue damage. During acute phase, neuroendocrine and inflammatory responses promote protein breakdown and amino acid release. Under stress conditions, protein synthesis cannot match the increased rate of muscle proteolysis because of a state of anabolism resistance, which limits uptake of amino acids into muscles. Hypermetabolism results in a significant loss of lean body mass with an impact on weaning from the ventilator and muscle recovery. Functional disability can be long term sometimes with no full return to normal. In critically ill patients, severe and persistent testosterone deficiency is very common and is observed early after Intensive Care Unit (ICU) admission. This acquired hypogonadism promotes the persistent loss of skeletal muscle protein and is related to poor outcome. Administration of testosterone induces skeletal muscle fiber hypertrophy and decreases protein breakdown in healthy young men. It has been repeatedly shown that testosterone treatment enhances muscle mass and strength in hypogonadal men and women and can improve physical performance. Testosterone administration in burned patients reduces protein breakdown and increases protein synthesis efficiency. Oxandrolone, a synthetic testosterone analogue, reduces body mass and nitrogen loss and accelerates healing in burned patients. Trials in critically ill unburned patients failed to demonstrate any effect on clinical outcome but the studies were underpowered to detect a difference. Transdermal gel testosterone is the preferred route of administration for achieving steady serum testosterone concentrations as compared to oral and intramuscular formulations. Intramuscular injection induces strong fluctuations of testosterone plasma concentrations and can cause haematoma in patients with coagulation disorders, a common condition in ICUs. Several studies have raised the concern that testosterone administration could increase the risk of cardiovascular disease events. However, in a recent meta-analysis, no significant effects on cardiovascular risk were observed with either injected or transdermal testosterone supplementation in men, and the French National Agency for Medicines (ANSM) recently reported that drugs containing testosterone were not associated with an increased risk of cardiovascular events.