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BDNF clinical trials

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NCT ID: NCT04955457 Completed - Stress Clinical Trials

BDNF Promoter Methylation: Effects on Cognition, Stress and Anxiety and Depression Symptom in Healthy Women.

BDNFm
Start date: September 1, 2018
Phase:
Study type: Observational

The purpose of this study is to explore the association between BDNF methylation and neurocognitive performance, perceived stress, and well-being in healthy women.

NCT ID: NCT03164798 Completed - Stroke Clinical Trials

Serum BDNF Role as a Biomarker for Stroke Rehabilitation

BDNF
Start date: February 1, 2017
Phase:
Study type: Observational

This study aims to develop the quantitative biomarker to establish the individualized strategy in stroke rehabilitation. Brain-derived neurotrophic factor (BDNF) acts on certain neurons of the central nervous system (CNS) helping to support the survival of existing neurons, and encourage the growth and differentiation of new neurons and synapses. BDNF in CNS can be assessed by analysing serum BDNF. The final objective of this study is to demonstrate a role of biomarker of BDNF in stroke rehabilitation to establish the individualized strategy.

NCT ID: NCT02074696 Terminated - Clinical trials for Polymorphism, Genetic

BDNF and Motor Learning

BDNF
Start date: April 2014
Phase: N/A
Study type: Observational

The purpose of the study is to assess the status of brain-derived neurotrophic factor brain (BDNF) and how the brain behaves in response to skill acquisition. Specifically we will investigate the relationship of the status of BDNF with cortical excitability changes and learning that occur during a motor training paradigm. We aim to 1) determine cortical excitability changes by using transcranial magnetic stimulation (TMS) before and after training; 2) to determine finger tracking accuracy before and after training; and 3) determine the presence of BDNF polymorphism in each participant. We are testing healthy adults in this study, and eventually would like to apply to persons who have neurologic disorders such as stroke or dystonia. By applying a magnetic field to the outside of the head, electrical currents are produced within the brain that can stimulate brain tissue. Using TMS, the brain can be studied to gain a greater understanding of the mechanisms associated with cortical excitability in healthy and patient populations. There is limited knowledge of what influence genetic biomarkers such as BDNF have on cortical excitability changes within the cortex following learning. Studies have indicated that people without this certain gene are less likely to show changes in brain excitability during TMS and during motor learning than people with this gene