View clinical trials related to Central Nervous System Diseases.
Filter by:Central Nervous System (CNS) inflammation is an immune response activated in the brain and spinal cord by microglial cells and astrocytes, commonly occurring under conditions such as CNS ischemia, autoimmunity, infection, toxins, and trauma. Microglial cells, as the innate immune cells of the CNS, are responsible for driving the inflammatory response and play a crucial role in sensing environmental changes, responding to harmful stimuli, and engulfing dead neurons. They also present antigens to T lymphocytes, mediating interactions between the peripheral immune system and the CNS. Factors released by neuronal cells can either promote or inhibit inflammation, and monitoring the level of inflammation driven by microglial cells is essential for the diagnosis and treatment of CNS diseases. MRI is the primary imaging method for CNS inflammation, but it can be challenging to diagnose. PET/MR, a technology that integrates PET and MR imaging, provides high-quality diagnostic images and is valuable for the early detection, diagnosis, and assessment of CNS diseases. The radioactive ligand 18F-DPA-714 PET, targeting the translocation protein (TSPO), can visualize activated microglial cells, which may have a gain effect in detecting active CNS inflammation. This study aims to explore the application of 18F-DPA-714 PET/MR in the early diagnosis, treatment evaluation, and prognosis of CNS inflammation.
CAIS-MT is a single-center, prospective cohort study, to evaluate the correlation between outcomes of endovascular treatment(EVT) and intracranial artery calcification(IAC) in patients with acute ischemic stroke due to large or medium vessel occlusion.
Despite the massive use of intracranial pressure in neuro-resuscitation, there is still no cerebral compliance evaluation index used in current practice to guide therapy. In treatment guidelines for intracranial hypertension, patients are placed in a prone position at about 30 degrees. Several times a day, during nursing care, patients are flattened, which corresponds to a cerebral compliance test by adding a volume of cerebrospinal fluid to the cranial box.
The goal of this study is to verify whether the use of deep brain stimulation can improve motor function of the hand and arm and speech abilities for people following a stroke. Participants will undergo a surgical procedure to implant deep brain stimulation electrode leads. The electrodes will be connected to external stimulators and a series of experiments will be performed to identify the types of movements that the hand and arm can make and how speech abilities are affected by the stimulation. The implant will be removed after less than 30 days. Results of this study will provide the foundation for future studies evaluating the efficacy of a minimally-invasive neuro-technology that can be used in clinical neuro-rehabilitation programs to restore speech and upper limb motor functions in people with subcortical strokes, thereby increasing independence and quality of life.
The purpose of this study is to understand if cognitive behavioral therapy can improve pain-related thought patterns and pain-related impairment in adults with cerebral palsy.
The study aims to evaluate the safety and efficacy of the Supernova stent retriever device, developed by Gravity Medical Technology, for treating acute ischemic stroke. The device is used to remove blood clots and restore blood flow to the brain .
The goal of this clinical trial is to investigate the feasibility if a remotely administered smartphone app can increase the volume and intensity of physical activity in daily life in patients with isolated Rapid Eye Movement (REM) sleep behaviour disorder over a long period of time (24 months). Participants will be tasked to achieve an incremental increase of daily steps (volume) and amount of minutes exercised at a certain heart rate (intensity) with respect to their own baseline level. Motivation with regards to physical activity will entirely be communicated through the study specific Slow Speed smartphone app. Primary outcomes will be compliance expressed as longitudinal change in digital measures of physical activity (step count) measured using a Fitbit smartwatch. Exploratory outcomes entail retention rate, completeness of remote digital biomarker assessments, digital prodromal motor and non-motor features of PD, blood biomarkers and brain imaging markers. Using these biomarkers, we aim to develop a composite score (prodromal load score) to estimate the total prodromal load. An international exercise study with fellow researchers in the United States and United Kingdom are currently in preparation (Slow-SPEED). Our intention is to analyse overlapping outcomes combined where possible through a meta-analysis plan, to obtain insight on (determinants of) heterogeneity in compliance and possible efficacy across subgroups
The investigators recently identified Brain-derived tau (BD-tau) as a sensitive blood-based biomarker for brain injury in acute ischemic stroke: in patients with acute ischemic stroke, plasma BD-tau was associated with imaging-based metrics of brain injury upon admission, increased within the first 24 hours in correlation with infarct progression, and at 24 hours was superior to final infarct volume in predicting 90-day functional outcome. While informing on the relation of BD-tau with imaging-based metrics of brain injury, this cross-sectional study was restricted to BD-tau assessments upon admission and at day 2 and could not inform on key characteristics of the evolution of plasma BD-tau, including when exactly it starts to rise, how long it continues to rise, and how it is determined by infarct characteristics as well as comorbidities. Here, the investigators aim to assess plasma BD-tau every hour from admission to 48 hours after onset to evaluate the hypothesis that BD-tau rises immediately after onset and plateaus between three and 48 hours after onset.
The study tests the effect of the ATNC MDD-V1 on Alzheimer patients' cognitive function. The ATNC MDD-V1 uses non-invasive stimulation of both magnetic and cognitive training.
The primary objective of this study is to evaluate the tolerance of the use of immersive virtual reality (VR) during robotic walking rehabilitation sessions by Gait Trainer (GT) in post-stroke patients. Secondary objectives aim to evaluate the motivation to participate in VR sessions compared to conventional sessions, the participants' sense of presence within the virtual environment, and the usability of the rehabilitation device created. Finally, we will report the actual walking time and number of steps stroke patients take in VR sessions and conventional sessions.