View clinical trials related to Dystonic Disorders.
Filter by:Cervical dystonia (CD) is a common movement disorder. Despite the optimization of botulinum toxin injection (BoNT-A) parameters including muscle selection and dosing, a significant proportion of patients report low levels of satisfaction, and a few of them develop resistance to therapy. The only options for such patients would be invasive therapy such as pallidotomy or pallidal deep brain stimulation. Currently, studies are going on the effectiveness of noninvasive neurostimulation in different neurological disorders. Transcranial Direct Current Stimulation (tDCS) or transcranial pulsed current stimulation (tPCS) are known to be safe non-invasive intervention with almost no side effects that can be used to provide complementary treatment. To detect the dysfunctional regions five min resting state quantitative EEG (qEEG) eyes closed will be recorded and analyzed each time before and after noninvasive stimulation. The investigators will evaluate the efficacy of acute noninvasive stimulation in those CD patients who are already on 3 monthly BoNT-A therapy but the effect of BoNT-A is wearing off in 8 weeks. Kinematics (static and dynamic movements) of neck movements will be recorded using established technology before and after stimulation.
To generate pilot data to investigate the potential to use in vivo iron- and neuromelanin-quantification as imaging tools for the diagnostic evaluation of movement disorders with predominant dystonia / parkinsonism. To this end we are planning to compare the MR imaging neuromelanin and iron-pattern and content in midbrain, striatum and further brain structures in clinically similar entities and respective, sex- and age-matched healthy controls.
The aim of this study is to observe the efficacy of Deep Brain Stimulation in the treatment of Parkinson's disease,Essential Tremors and Dystonia in our locality.
The investigators will study the relationship between the basal ganglia and the cerebellum in dystonia by associating cerebellar stimulations with functional magnetic resonance imaging analysis.
Botox acts on nerve endings, yet there are no nerve endings inside the muscle, where they are typically injected. All nerves terminate on the fascia, where ASIS device can precisely deliver Botox by creating that subdermal bloodless space, between the skin and muscle. Thus enhancing and prolonging Botox's efficacy, at the same time prevent it's unnecessary adverse reactions and distant spread, especially since Botox has no reason to travel to the rest of the body any way.