View clinical trials related to Nervous System Diseases.
Filter by:Functional neurological disorders (FND) are motor, sensory or cognitive symptoms without an identified lesion. This is a very common reason for consultation in neurology. Transcranial magnetic stimulation (TMS) may be performed in these patients both for diagnostic purposes (in the context of motor evoked potentials) and for therapeutic purposes. The main objective of the study is to evaluate tolerability of TMS in patients with FND, in particular the pain caused by stimulation and the possible modification of painful or non-painful symptoms generated by this TMS. The secondary objectives are to assess chronic pain symptoms of these patients quantitatively and qualitatively, to assess expectations of these patients with regard to the performed examinations and to assess their expectations regarding magnetic stimulation performed for therapeutic purposes.
Individuals who come to the neurology clinic to undergo lumbar puncture, and meet the inclusion criteria, and agree to participate in the study will be given a stress ball during the procedure and will be asked to squeeze this ball.
Handheld optical coherence tomography (OCT) has become an important imaging modality to evaluate the pediatric retina. The objective of this pilot study is to compare a new contact OCT system (Theia Imaging) with an investigational noncontact OCT system (Duke Biomedical Engineering) to assess their ability to image the pediatric retina. The investigators hypothesize that the contact OCT system is superior in imaging larger areas of the retina (larger field-of-view), while it has similar resolution to image the retina substructures (non-inferior image quality).
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.
Research purpose Using single-cell sequencing, 3D/4D genomics and multidimensional omics technologies to reveal the complex cellular and molecular regulatory networks of cardiovascular and nervous system diseases, unique phenotypic changes of specific cell types, and different gene expression patterns, identify cell types and cell subsets associated with cardiovascular and nervous system diseases, and discover disease-related genes. To reveal new pathological mechanisms of related diseases and develop new diagnosis and treatment methods. Research background Cardiovascular and nervous system diseases such as arrhythmias (atrial fibrillation, ventricular tachycardia, ventricular fibrillation, postoperative vascular stenosis injury, etc.), heart failure, atherosclerosis (coronary heart disease, stroke, peripheral vascular disease, carotid atherosclerosis, etc.), epilepsy, moyamoya disease, etc., are currently leading to the main diseases affecting the health and death of residents in China. The data integration method based on single-cell sequencing, multi-omics data, and machine learning to analyze molecular level changes in cardiovascular and nervous system-related diseases can help deepen the research on the pathogenesis of cardiovascular and nervous system-related diseases and provide new ideas for the prevention and treatment of related diseases.
This project focuses on motor development, muscle growth and muscle activity. Using advanced, instrumented tests such as , the link between muscles and the movement characteristics will be studied. In addition, the evolution of these neuro-biomechanical determinants during the first year of life will be investigated. The examinations are planned for a group of high-risk infants (e.g. premature birth, cases of asphyxia, etc.) compared with a group of infants with typical development.
Functional seizures are common and harmful. They look like epileptic seizures but are not caused by the excess electrical discharges in the brain that arise in epilepsy. Our understanding of the mechanisms that give rise to functional seizures is limited, and for this reason the development of novel treatments for functional seizures is also limited. Recent research by our and other groups has shown that interoception may play an important role in the development of functional seizures. Interoception refers to the process by which the nervous system senses, interprets and integrates information from inside the body. Research has shown that altered interoception is linked to functional seizures. We have shown that patients with functional seizures have a reduced ability to accurately identify signals from within their bodies, such as their heartbeats. The worse their ability, the greater their seizure severity and higher their levels of other unwanted symptoms. In separate research other groups have shown that interoceptive training, that is actively training an individual to better recognise signals from their body, can reduce levels of anxiety and the levels of unwanted symptoms. In this study we therefore plan to explore the feasibility of interoceptive training in patients with functional seizures.
Research purpose 1. Combined with multi-omics data and advanced data mining methods, we explored the pathogenesis and potential application pathway of intestinal microbiome mediated by specific cardiovascular diseases (such as idiopathic ventricular tachycardia, stenosis after coronary artery stenting injury, etc.) and nervous system diseases (such as carotid atherosclerosis, moyamoya disease, etc.). 2. The secondary goal of this study is the construction of risk prediction model. Based on the pathogenesis identified by multi-omics association analysis, detailed dietary information and clinical information related to cardiovascular and nervous system diseases, the risk of cardiovascular and nervous system diseases was assessed and the disease risk model was constructed. 3. Based on the key genes and microorganisms excavated, disease-related machine learning models can be built, and models can be built to prevent and treat diseases. Research background Cardiovascular and nervous system diseases such as arrhythmias (atrial fibrillation, ventricular tachycardia, ventricular fibrillation, postoperative vascular stenosis injury, etc.), heart failure, atherosclerosis (coronary heart disease, stroke, peripheral vascular disease, carotid atherosclerosis, etc.), epilepsy, moyamoya disease, etc., are currently leading to the main diseases affecting the health and death of residents in China. Through the unremitting efforts of many scientists, the research on the association between intestinal flora and cardiovascular diseases (ventricular tachycardia/atrial fibrillation, carotid atherosclerosis, etc.) and nervous system diseases (Parkinson's disease, epilepsy, carotid atherosclerosis, etc.) has made breakthrough progress. However, the study of gut microbiota is still in its infancy, and it is not possible to deeply understand the complex regulatory processes between heart disease and nervous system diseases and gut microbiota, involving a large number of host genes, host metabolites, and associated bacteria and bacteria-related metabolites. Based on multi-omics data, the data integration method combined with machine learning analyzes the connection between cardiovascular and nervous system and gut microbes, helping to deepen the research on the mechanism related to heart disease and nervous system under the regulation of gut microbes and providing new ideas for the prevention and treatment of related diseases. This study will also promote the implementation of clinical interventions with precise flora and provide new ideas for the treatment of cardiovascular diseases and neurological diseases.
The goal of this clinical trial is to learn about the application of domestic PET/MR in major brain diseases. The main questions it aims to answer are: - Overcome the bottleneck of early accurate diagnosis and treatment in major brain diseases clinical practice. - Promote the clinical application of domestic PET/MR, enhance international competitiveness. Participants will have a PET/MR scan of the brain.
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.