View clinical trials related to Cerebral Hemorrhage.
Filter by:The investigators intend to show that DDAVP improves platelet activity from baseline to 60 minutes after treatment start.
Intraventricular hemorrhage and its resultant post-hemorrhagic hydrocephalus are significant risk factors for the development of neurodevelopmental delays in preterm infants. The purpose of this study is to determine 1) the incidence of progressive post-hemorrhagic ventricular dilatation (PHVD) in infants with severe intraventricular hemorrhage (IVH), 2) the effect of ventricular dilatation on brain status (cerebral oxygenation, electrical activity, and biomarkers of cerebral damage and repair), and 3) if using ventricular measurements, derived from cranial ultrasound to guide removal of cerebral-spinal fluid through an Omaya reservoir, will help resolve ventricular dilatation and decrease the need for ventriculo-peritoneal (VP) shunt insertion. The hypothesis of this research project is that, by using ventricular measurements to guide the frequency of CSF removal, the rate of VP shunt insertion will be decreased in preterm infants with severe IVH and PHVD. The investigators further hypothesize that cerebral injury, as measured by cerebrospinal fluid (CSF) concentration of biomarkers of neuronal and glial damage and inflammation, will decrease over time with resolution of PHVD.
Intracerebral haemorrhage (ICH) is the most feared complication in patients on vitamin K antagonists (VKA). VKA related ICH occurs 8-10 times more frequently and the mortality is 2 times higher than in non-anticoagulated patients. Mortality may rise up to 67%. The higher mortality rate may in part be due to the higher rate of haematoma expansion (HE) over a longer period after symptom onset. International guidelines recommend treatment of VKA-ICH with prothrombin complex (PCC) or fresh-frozen plasma (FFP) both in combination with Vitamin-K. But these recommendations are not based on randomized controlled trials. It is known that these drugs lower the INR, and thus it is assumed that normalization of coagulopathy may lead to haemostasis and reduction of HE. Safety and efficacy of these treatments have never been studied in a prospective controlled trial. The investigators' questions are: How potent are PCC and FFP in normalization of the INR? What is the safety profile of each of these drugs?
Intraventricular hemorrhage remains the most frequent, severe neurological complication of prematurity, occurring in 25-30% of preterm infants. Post-hemorrhagic ventricular dilation (PHVD) occurs in 25-50% of those infants, with over half requiring ventriculoperitoneal shunts. When suboptimally untreated, PVHD results in a 3-4 fold increase in neurodevelopmental delay. Despite the lifelong impact of PHVD on quality of life, little research has been done over the past 20 years to improve patient outcomes. The CENTRAL HYPOTHESIS of this project is that early treatment of PHVD will reduce shunt-dependence and improve neurodevelopmental outcome in preterm infants.
The purpose of this study was to see if a brief delay in cord clamping for 30 to 45 seconds would result in higher hematocrit levels, fewer transfusions, healthier lungs, and better motor function at 40 wks and 7 months of age.
Intracerebral hemorrhage (ICH) is a devastating disease with less than 20% of survivors being independent at 6 months. There is currently no approved treatment for ICH which has been shown to improve outcomes. In an effort to develop a new treatment for ICH, this research focuses on a different aspect of ICH treatment which has not yet been evaluated: enhancing absorption of the blood clot with medication.
The purpose of this study is to determine whether the intervention of delaying cord clamping for 30 to 45 seconds followed by one milking of the cord while simultaneously lowering the VLBW infants below the introitus will result in less bleeding in the brain and fewer infections while in the Neonatal Intensive Care Unit (NICU) and better motor skills at 7 months corrected age. The investigators will attempt to identify the mechanisms of effect through measurement of biologic markers.
Currently, when premature infants develop severe intraventricular hemorrhage (IVH), a type of intracerebral bleed, there are no proven therapeutic interventions to prevent the devastating consequences of this event. These children will be likely to develop cerebral palsy or severe cognitive delays. The purpose of our study is to characterize differences in brain physiology, imaging, and function between premature infants with severe IVH and controls. The goals for gathering this information are to generate baseline data, which could facilitate early screening for complications of IVH in premature infants. These baseline data would also allow the design and implementation of early therapeutic interventions to help rehabilitate premature infants with severe IVH.
The purpose of this study is to determine if computed tomography angiography can predict which individuals with intracerebral hemorrhage will experience significant growth in the size of the hemorrhage. For individuals who are at high risk for hemorrhage growth, the study will compare the drug recombinant activated factor VII (rFVIIa) to placebo to determine the effect of rFVIIa on intracerebral hemorrhage growth.
Over the last 30 years the survival rates for babies born prematurely have improved greatly with research. As these babies grow up, we have found that many of the premature babies have learning and movement problems. The purpose of this research is to learn why premature infants are at risk for learning disabilities and movement problems later in childhood and whether this is changed by caffeine therapy. Caffeine is often used in premature babies to help them to breathe on their own. Nearly all babies born before 30 weeks gestation receive caffeine while they are in the neonatal intensive care unit (NICU). Scientists have shown that caffeine therapy given to premature babies reduces their disabilities. We will use brain monitoring, including electro-encephalogram (EEG) and magnetic resonance imaging (MRI) to understand how the brain of a premature baby develops and whether caffeine in high doses enhances protection of the developing brain. Just as we monitor the heart and lungs to improve our care of premature babies, we wish to monitor the brain so that we can understand how to improve our care for the brain.