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DMRF Co-Funds Dystonia Coalition Pilot Project Awards

The DMRF is proud to partially support two Dystonia Coalition Pilot Project Awards. The goal of the Pilot Projects Program is to foster the most promising clinical and translational studies on dystonia. Moodscreen for Cervical Dystonia: A Diagnostic Accuracy Study of Depression and Anxiety Davide Martino, MD, PhD, University of Calgary Depression and anxiety frequently […]

Logo that reads "Dystonia Zoo Day 2022" with illustrations of animals.

Everybody’s Zoo-ing It: Dystonia Zoo Days Start August 18

The DMRF is pleased to return to in-person events in select cities to re-unite the dystonia community, promote awareness, and support the mission to find a cure. We’re especially excited to announce this year’s Dystonia Zoo Day season, with both in-person events and virtual opportunities to participate. A Virtual Kick-Off Celebration on August 18, 2022 will mark […]

Dystonia Events

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Logo that reads Dystonia Zoo Day 2022 with animal figures.

Virtual Dystonia Zoo Day Kick-Off Celebration

August 18, 2022

Logo that reads Dystonia Zoo Day 2022 with animal figures.

Portland Zoo Day

August 20, 2022

Logo that reads Dystonia Zoo Day 2022 with animal figures.

Toledo Zoo Day

August 27, 2022

Logo that reads Dystonia Zoo Day 2022 with animal figures.

Pamela Sloate Bronx Dystonia Zoo Day

September 10, 2022

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Current Dystonia Research Investigations

The Dystonia Medical Research Foundation (DMRF) prides itself on a long history of supporting and stimulating dystonia research.

Normalizing DYT1 Cholinergic Neurons by CRISPR Disruption of Mutant TOR1A Allele

Gene therapy is proving beneficial in an increasing number of neurological diseases. This proposal represents a step in evaluating whether gene therapy could be effective in DYT1 dystonia. Dr. Breakefield’s lab has shown that selective disruption of the mutant TOR1A/DYT1 gene can normalize biologic cell functions in patient skin cells. Since dystonia is a neurological disease, the next step is to evaluate whether this approach can normalize function in TOR1A/DYT1 neurons (brain cells). Through the work of Dr. D. Cristopher Bragg and Dr. Nutan Sharma the investigators have access to stem cells from DYT1 patients, which can be turned into neurons. If successful in rescuing neurons, the lab will work with Dr. David Standaert to translate the technology into a mouse model which would provide some of the data needed for the Food & Drug Administration to allow a clinical trial. Ultimately, Dr. Breakefield envisions a clinical trial in which children carrying the mutant TOR1A/DYT1 gene and manifesting symptoms at an early age are administered gene therapy in a single dose. This could be done at the same time as deep brain stimulation (DBS), with the intent to eventually turn off the DBS device to assess if it remains needed. The ultimate goal of this effort is the development of better therapies for DYT1 dystonia.

Xandra Breakefield, PhD Massachusetts General Hospital (USA)

Role of Cerebellar Network Excitability and Plasticity in the Pathophysiology of Dystonia

Dr. Pisani and his team are studying brain circuits in two types of genetic dystonia: DYT1 dystonia, which is the most common inherited form, and DYT25 dystonia which is rarer. They are testing the idea that loss of these genes leads to changes in brain plasticity, which is how the brain learns motor tasks and adapts to new environments. They believe that abnormal plasticity is a shared factor responsible for abnormal movements observed in patients. They will study two animal models, one with the DYT1/TOR1A gene mutation and the other with loss of DYT25/GNAO1. By conducting studies on brain circuits in these models, they hope to learn about the effects of the loss of these genes on brain plasticity. One of the features of abnormal movements in dystonia is that once the symptoms develop, they can be difficult to treat and may become permanent. This is a kind of dysfunctional plasticity. Therefore, if investigators can understand the mechanisms and control the abnormal plasticity, they might be able to ‘undo’ the changes in the brain that cause these movements, leading to better treatments.

Antonio Pisani, MD University of Pavia (Italy)

Cerebellar Repetitive Transcranial Magnetic Stimulation in Monogenic Myoclonus-Dystonia

Connie and Jim Brown Early Stage Investigator Award

Myoclonus-dystonia (M-D) is a neurological movement disorder often characterized by a combination of generalized myoclonic jerks, dystonia, and psychiatric disorders. Mutations in the SGCE and VPS16 genes have been identified as genetic causes of the disease. Both genes are important for the function of an area of the brain called the cerebellum. These investigators and others have demonstrated that individuals with M-D have deficits of cerebellar mediated learning. How cerebellar malfunction in these patients affects the cortex of the brain, particularly regions important for motor control is of particular interest. Dr. Weissbach is leading the first study to investigate potential symptom reduction and neurophysiological changes in M-D patients before and after repetitive non-invasive transcranial magnetic stimulation (rTMS). The study aims to identify the clinical cerebellar deficit, identify abnormalities of cerebellar function and its interaction with the cortex of the brain as well as examine the reversibility of these abnormalities through the application of cerebellar rTMS. These findings will foster development of new treatment strategies.

Anne Weissbach, MD University of Lübeck (Germany)
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