View clinical trials related to Cerebral Hemorrhage.
Filter by:ASPIRING is an investigator-led, multicentre, prospective, randomised, open-label, blind outcome (PROBE), parallel group, clinical trial. The pilot phase will explore the feasibility of conducting a trial of starting antiplatelet monotherapy versus avoiding antiplatelet therapy for reducing all serious vascular events for adults surviving symptomatic stroke due to spontaneous intracerebral haemorrhage (ICH). The pilot phase will involve ~120 patients at ~30 hospitals in China, Australia and New Zealand.
1. To evaluate the effectiveness of Huperzine A injection in the treatment of brain injury in patients with hypertensive cerebral hemorrhage； 2. To evaluate the safety of Huperzine A injection in the treatment of brain injury in patients with hypertensive cerebral hemorrhage。
A prospective cohort minimal risk study to determine the impact of the COVID-19 crisis on outcomes of neurologically injured ICU patients.
This registry will study the use of the Aurora® Surgiscope to provide surgical access and visualization in minimally invasive removal of hematoma in the brain. Many methods of hematoma removal are available and will be based on surgeon preference. The impact of patient selection and time to surgery from last known well time will be explored.
The investigators retrospectively reviewed the electronic medical records of the patients with spontaneous cerebral hemorrhage and mechanical valves from 2015 to 2020 in the second affiliated hospital of Zhejiang university medical college. Medical documents and patient data were reviewed, including patient age, gender, type of mechanical heart valve, replacement time, replacement site, underlying disease, anticoagulant drugs at admission, type of cerebral hemorrhage, treatment mode, time without anticoagulant, length of stay, mortality, etc
A randomized controlled trial of ultra-early, minimally invasive, hematoma evacuation versus standard care within 8 hours of intracerebral hemorrhage. Patients presenting to the emergency department with stroke due to supratentorial, spontaneous intracerebral hemorrhage >20mL volume will be assessed to determine their eligibility for randomization into the trial. If the patient gives informed consent they will be randomized 50:50 using central computerized allocation to minimally invasive hematoma evacuation using the Aurora surgiscope and evacuator (Integra Lifesciences) versus standard medical therapy. The trial is prospective, randomized, open-label, blinded endpoint (PROBE) design with seamless phase 2b-3 transition if the intermediate endpoint (successful hematoma evacuation) is met in analysis of the first 52 patients. Adaptive sample size re-estimation (Mehta and Pocock) will be performed when 160 patients have completed 6 month follow-up (minimum sample size 240, maximum sample size 434).
We are attempting to improve the cerebral monitoring of extremely low gestational age (ELGA) infants, such that in the future, real-time monitoring will be possible, to aid clinicians in their management of these infants. We wish to establish a new NIRS device, diffuse correlation spectroscopy (DCS), as a safe, noninvasive and informative bedside tool for assessing and monitoring brain health in ELGA infants during the first few days of life. It is hoped that this method will provide detailed information on changes in oxygen consumption and metabolism, and cerebral perfusion. This technique will have wide applicability, but for this research study we wish to focus on the effect of blood flow instabilities, intermittent hypotension and hypoxic episodes, pressure passive CBF periods, and hypoperfusion on the preterm brain during the first days of life, and their relationship with incidence of intraventricular hemorrhage (IVH). We aim to recruit 100 premature infants to obtain data to: 1. Test the feasibility of NIRS-DCS to monitor cerebral activity, perfusion and oxygen consumption in extremely premature infants during the first week of life. 2. To assess if these baseline values are impacted by intermittent hypoxic episodes. 3. To assess if cerebral blood flow disturbances correlate with incidence of intraventricular hemorrhage. 4. Correlate the NIRS-DCS findings with clinical outcome at hospital discharge.
Fundoscopy, optical coherence tomography (OCT) and OCT-angiography (OCTA) are established examinations and bear minimal risks. The recognition of retinal microvascular signs will enhance the pathophysiological understanding of the vasculopathy in patients with intracerebral haemorrhage (ICH) and aneurysmatic subarachnoid hemorrhage (aSAH) and might serve as prognostic and diagnostic indicators.
This is a prospective, open, multicentre trial that will enrol patients with clinical signs of stroke in the acute phase admitted for CT scan. The study assesses the diagnostic capability and safety of Strokefinder MD100.
Intraventricular hemorrhage (IVH) is a leading cause of brain injury in infants born before term. Severe IVH, which occurs nearly exclusively in very preterm infants (born before 32 weeks gestation) who are already at risk of neurodevelopmental delays and cerebral palsy at baseline, results in a ~5 times higher risk of death or moderate-severe neurodevelopmental impairment, as well as short-term morbidities in the neonatal intensive care unit (NICU). Infants with grade I and II IVH, although less severe than the higher grades of IVH, also have a higher risk of death or moderate to severe neurodevelopmental impairment compared to infants with a normal head ultrasound. Outcomes are worsened by the fact that the brains of these preterm infants are not fully developed, so the progenitor cells that would later differentiate and mature are damaged, resulting in hypomyelination and gray matter loss that are associated with poor neurodevelopmental outcomes. There is no available therapy to treat the IVH or resultant brain injury, other than symptomatic management for resultant post-hemorrhagic hydrocephalus with lumbar punctures and temporary or permanent shunts, which have significant risks on their own. This is a phase I trial to determine whether fresh intranasal human milk (HM) can be safely delivered as stem cell therapy to preterm IVH patients within a 3-hour window from HM expression and to identify signals which would indicate whether intranasal HM stimulates the repair of damaged brain tissue. Outcomes will be compared to HM fed historical IVH controls. Recruitment will take place in tertiary care NICUs in Toronto, which care for the highest proportion of very preterm infants with IVH in Canada. These NICUs have already adopted a common protocolized approach to manage severe IVH and post-hemorrhagic hydrocephalus with intensive monitoring, early symptomatic management, and detailed prospectively collected IVH data.