Active clinical trials for "Sepsis"

The purpose of this study is to determine the optimal dose of Resatorvid for reducing 28-day all-cause mortality in subjects with severe sepsis.

The purpose is to determine how Drotrecogin Alfa (activated) will affect patients with blood cancers who develop severe sepsis within 60 days of starting chemotherapy in preparation for bone marrow transplant (BMT).

Severe infection in the intensive care unit is common accounting for about 10% of admissions and has a death rate of approximately 40-50%. It is almost always associated with significant reductions in blood pressure. Administration of fluid often in large volumes is essential to normalize blood pressure and prevent failure of organs and death. Two common classes of fluid solutions are crystalloid fluids (salt based, normal saline) and colloid fluids (protein based, albumin). Due to its properties, the albumin fluid may remain in the vascular space better than the normal saline solution. Hence, there may be faster attainment of normal blood pressure as well as a reduction in failed organs and death. Preliminary clinical trial data suggests a potential for benefit with albumin in this setting but these findings require confirmation in a large clinical trial. There are few data to explain how albumin may exert its protective effects and lead to better outcomes for patients with severe infections. We will conduct a clinical study that will examine potential biological mechanisms for albumin's protective effects in 50 patients across 6 Canadian academic hospitals. We will also examine our ability to successfully recruit patients into this trial. This study will provide information that will help to understand the biological mechanisms of albumin in severe infection. The information gained will guide the investigative team for future fluid related mechanistic questions. The study will also provide essential information that will aid in the design and conduct of the future large clinical trial that will examine death as its primary outcome.

Catecholamines infusion is a major component of septic shock management. International guidelines recommend that norepinephrine should be preferred to epinephrine, though phase III trials are lacking. The present study aimed at comparing the efficacy and safety of norepinephrine plus dobutamine to that of epinephrine in adults with septic shock.

A common group of viruses that infect humans are enteroviruses. Enteroviruses produce illnesses in children which may range from very mild (summer colds) to severe (infections of the brain, liver, and heart). The purpose of this study is to determine if a new drug called pleconaril helps treat babies with enteroviral sepsis. In addition, researchers are attempting to determine a safe and effective dose of pleconaril to help babies with this disease. Infants who are 15 days or younger when diagnosed with enteroviral disease are eligible for this study. Two out of 3 babies will be randomly assigned to receive Pleconaril and the other one out of three will receive a placebo (inactive substitute). Participants will be hospitalized while receiving study medication. Babies will receive standard treatment care for their symptoms and will be observed for their medical progress. Participants may be in the study for up to 2 years.

In septic shock, dysregulated host responses to pathogens lead to cytokine storms that damage host tissues and organs, further contributing to the development of organ dysfunction and increased mortality. For sepsis, blood purification can remove inflammatory factors in sepsis by filtration or adsorption, so as to achieve the purpose of reducing inflammatory mediators in the body. However, there are few prospective randomized controlled studies in children. Therefore, this study intends to compare the efficacy and prognosis of different membrane on children with sepsis through a perspective cohort study, so as to provide a corresponding basis for the treatment of children with sepsis blood purification.

The aim of our study was to find the frequency of thrombocytopenia and its severity in neonates with sepsis

Severe infections can be caused by various organisms, such as bacteria or viruses, and lead to otherwise healthy people getting very unwell, sometimes needing treatment in hospital or even intensive care. For the treatment of bacterial infections to be successful, the correct antibiotics need to be given promptly. Early in the course of illness, clinicians often do not know exactly which bacteria are causing the infection. Furthermore, patients differ in terms of how their bodies process the antibiotics they are given; this means that some may get too much and others too little. This can in turn lead to some patients not being fully cured, and others coming to harm due to side effects of higher doses of these drugs. For certain types of antibiotics, clinicians are able to measure their levels in the bloodstream, which can help guide dosing. This is called therapeutic drug monitoring, and is commonly used in clinical practice. One of the problems with therapeutic drug monitoring is that it is often not available outside of regular working hours, is costly, and most importantly, provides clinicians with useful information only after a few days of treatment have already been completed. This may be too late to treat these severely ill patients with life-threatening infections, where early and appropriate treatments matter. The aim of our study, called TDM-TIME, is to look at how long it takes for blood samples to get from the patient to the laboratory to be measured, with the results then communicated back to clinicians. We are further looking to investigate whether steps can be taken to improve these timings, which would lead to shorter times until treatments can be improved. As our study is observational, we will not change anything about the treatment of our patients, but will only be measuring levels of antibiotics in their blood.

Continuous renal replacement therapy is widely used in intensive care medicine, which is known as an alternative therapy to save injured kidney . Anticoagulation is an important part of this therapy. An insufficient anticoagulation would cause a poor curative effect of CRRT. Hemorrhage，heparin-induced thrombocytopenia (HIT), citrate accumulation, acidosis ad filter extra-cost usually happened on anticoagulation during CRRT. Therefore a new effective anticoagulation of CRRT needs to be carried out. Nafamostat Mesylate (NM) is a new anticoagulant. This serine protease inhibitor with broad spectrum can inhibit kinds of enzymes on the process of coagulation. NM is mainly rapidly decomposed in the liver and also removed by dialysis or filtration. The elimination half life of is only 8 minutes. If NM is applied as a regional anticoagulant, approximate 40% NM is removed by dialysis and / or convection in cardiopulmonary bypass circuit, and then rapidly degraded by esterase in liver and blood, which ensures security in patients with bleeding tendency. Based on the information above, the investigators designed an observational clinical study aimed to testify that NM would have equivalent anticoagulant results compared with those traditional ways and might even have a better effect than traditional anticoagulant therapy.The study team has investigated the current situation of CRRT in Shaanxi province in China through a cross-sectional survey last year. The survey involved 74 hospitals in Shaanxi province and the results basically illustrated a real status of CRRT. These scientific results helped investigators to design this multi-center, parallel, controlled, non intervention study and real world study.

Methods:Ten patients were enrolled in the study. Adipose derived-MSCs infusions were given (1x 106/ kg, on 1st, 3rd, 5th, 7th and 9th days of therapy) together with Standard therapy. Before the MSCs applications, blood samples were collected for cytokine assessment (TNF-α, IFN-γ, IL-2, IL-4, IL-6, IL-10). The clinical and laboratory improvements were recorded and compared with control groups selected retrospectively.