View clinical trials related to Alzheimer Disease.
Filter by:This project aims to understand the feasibility, acceptability and real-world evidence of a novel UK-based remote brain health clinic for patients with mild cognitive impairment (MCI). A timely and accurate diagnosis of dementia is a priority in the UK and MCI is indicative of future risk of cognitive decline. An accurate etiological diagnosis of MCI (MCI-subtyping - distinguishing those who are likely to go on to develop dementia and those who are not) is vital for treatment planning. Whilst the assessment of molecular biological markers (biomarkers) for etiological diagnosis of MCI and Alzheimer's disease (AD) is increasingly recommended and employed internationally, the uptake is low in UK memory clinics. The Brain Health Clinic (BHC) has been specifically designed as a state-of-the-art diagnostic centre for those with MCI. Procedures will include a range of clinical and biomarker assessments, with molecular biomarkers based on lumbar puncture and cerebrospinal fluid (CSF) analysis. Additionally, the clinic will employ remote neuropsychiatric assessments using digital and telephonic methods. This allows for regular contact, whilst adhering to changes in clinical practice and national guidance due to the COVID-19 pandemic. Our overarching objectives are to first establish the acceptability and feasibility of the remote Brain Health Clinic and its novel clinical and biomarker assessment programme. Then secondly establish the impact of care under the Brain Health Clinic on i) care management decisions (e.g. follow-up and treatment planning); ii) time to etiological diagnosis of MCI (MCI-subtyping); and iii) time to diagnosis of dementia and severity of dementia at the time of diagnosis.
Study the therapeutic effect and potential neural mechanisms of cerebellar iTBS mode transcranial magnetic stimulation on Alzheimer's disease patients through MRI and EEG.
The goal of this clinical trial is to learn about and describe how pianistic training influences the development of Alzheimer's disease. The key question is: Can pianistic practice influence the development of Alzheimer's disease? Participants will receive piano lessons for 4 weeks (20 sessions) and we will evaluate the evolution of the different parameters described by the tests carried out.
The goal of this clinical trial is to learn whether a new smell test works as well as the standard clinical smell test, if there is a link between sense of smell and variations in the retina, and if these results could be used as a way to identify early stages of Alzheimer's disease. The main questions it aims to answer are: - Whether the test is as effective and reliable as the standard test - Whether there is a link between the results of the smell test and the structure of the back of the eye Participants will: - complete a short questionnaire - have pictures of the inside of their eyes taken - perform two smell tests
Given the expansion of indications for genetic testing and our understanding of conditions for which the results change medical management, it is imperative to consider novel ways to deliver care beyond the traditional genetic counseling visit, which are both amenable to large-scale implementation and sustainable. The investigators propose an entirely new approach for the implementation of genomic medicine, supported by the leadership of Penn Medicine, investigating the use of non-geneticist clinician and patient nudges in the delivery of genomic medicine through a pragmatic randomized clinical trial, addressing NHGRI priorities. Our application is highly conceptually and technically innovative, building upon expertise and infrastructure already in place. Innovative qualities of our proposal include: 1) Cutting edge EHR infrastructure already built to support genomic medicine (e.g., partnering with multiple commercial genetic testing laboratories for direct test ordering and results reporting in the EHR); 2) Automated EHR-based direct ordering or referring by specialist clinicians (i.e., use of replicable modules that enable specialist clinicians to order genetic testing through Epic Smartsets, including all needed components, such as populated gene lists, smartphrases, genetic testing, informational websites and acknowledgement e-forms for patient signature); 3) EHR algorithms for accurate patient identification (i.e., electronic phenotype algorithms to identify eligible patients, none of which currently have phenotype algorithms present in PheKB; 4) Behavioral economics-informed implementation science methods: This trial will be the first to evaluate implementation strategies informed by behavioral economics, directed at clinicians and/or patients, for increasing the use of genetic testing; further it will be the first study in this area to test two forms of defaults as a potential local adaptation to facilitate implementation (ordering vs. referring); and 5) Dissemination: In addition to standard dissemination modalities,PheKB95, GitHub and Epic Community Library, the investigators propose to disseminate via AnVIL (NHGRI's Genomic Data Science Analysis, Visualization, and Informatics Lab-Space). Our results will represent an entirely new paradigm for the provision of genomic medicine for patients in whom the results of genetic testing change medical management.
This is a prospective cohort study with the main purpose of predicting progression neurocognitive disorders in Thai population. The main predictor variables to be evaluated are plasma phosphorylated tau (p-tau) level and cognitive test scores, which will be combined using statistical/computational modeling. Additionally, it seeks to evaluate biomarkers for diagnosing disease pathologies, understand their correlation with clinical outcomes, and explore the socioeconomic impact of neurocognitive disorders. The study invites both participants for biospecimen collection, structured interviews, and cognitive examinations and schedules follow-up visits annually or biennially.
The objective of this study is to evaluate the safety and pharmacokinetic profiles of HHT201 in healthy subjects.
This study will assess if drug (NIO752) reduces production of a protein, tau, by the brain. Normally tau maintains the internal skeleton of nerve cells. In Alzheimer's disease (AD) it builds up in the brain, causing damage. Abnormal tau proteins cling to each other forming 'tangles' inside nerve cells, which interfere with how the nerve cells work, and eventually die. This is what causes the symptoms of dementia. It is thought that NIO752 reduces production of tau.
Is this the right time to use next-generation approaches in Alzheimer's disease (AD)? In recent years, several large clinical trials testing treatments for AD have failed, putting the entire field on a reset. AD drug trials have almost exclusively sought to use antibodies targeted toward misfolded amyloid and tau proteins. Of note, although these approaches have failed, they were designed to cover both familial and sporadic forms of AD. On the other hand, the failure in developing new effective drugs is attributed to, but not limited to, the highly heterogeneous nature of AD with multiple underlying hypotheses and multifactorial pathology. The idea underlying this project is based on the assumption that learning and memory disorders can arise when the connections between neurons do not change appropriately in response to experience. Thus, by intervening on the core mechanisms of the cellular correlate of learning and memory, i.e., synaptic plasticity, the investigators expect to preserve some of the essential brain functions in AD. By overcoming the limits of traditional AD therapeutic approaches, the investigators will use genetically encoded engineered proteins (GEEPs), which the investigators developed and tested in vitro and in murine models, to control their activity in living human neurons boosting synaptic plasticity. Indeed, outstanding and relevant progress in understanding synaptic physiology empowers the possibility to prevent or limit brain disease like never before. The investigators designed GEEPs to address some of the leading causes of synaptic plasticity failures documented in AD. Thus, GEEPs will be tested in human induced pluripotent stem cells (hiPSCs)-derived living neurons obtained from reprogrammed peripheral tissues of participants with Alzheimer's diseases. hiPSCs will be obtained from fibroblast-derived from a skin biopsy of participants with AD and controls performed in local anesthesia using a 4 mm punch. The findings will provide the first preclinical study on the effect of genetically engineered proteins to control essential pathways implicated in synaptic plasticity on AD-related cognitive decline.
The goal of this clinical trial is to explore the impact of Community Intervention on Dementia and Activities of Daily Living in community-dwelling elderly individuals (≥60 year old) with Alzheimer's disease. It primarily aims to address: the effects of Community Intervention on Dementia and Activities of Daily Living in community-dwelling elderly individuals with Alzheimer's disease in different degrees. All participants are required to undergo a continuous 2-week (14 days) Community Intervention, with weekends off and training conducted only on weekdays. The training will be conducted two sessions per day, lasting 30 minutes each.