NIH-funded research R01 grant

Understanding how a specific protein affects brain development in DYT6 dystonia

Official title: Role of DYT6 Dystonia Protein THAP1 in Oligodendroglial Mediated ECM Homeostasis During CNS Development

Funded at Case Western Reserve University · NIH-11127427 · Data updated 2026-11-12

This work explores how a protein called THAP1, linked to DYT6 dystonia, helps shape the brain's support system during development.

Quick facts

Grant typeR01 grant
Study typeNIH-funded research
Funding institutionCase Western Reserve University
NIH-funded
Lab location1 site (Cleveland, United States)
Project startJuly 1, 2022
Project endJune 30, 2027
Funding year2025
Award (this year)$426,237
NIH project number5R01NS122990-05
Project IDNIH-11127427 on NIH RePORTER

Who could benefit from this research

Could help

This foundational research is not directly recruiting patients but focuses on understanding the biological mechanisms relevant to individuals with DYT6 dystonia.

Less likely to help

Patients without DYT6 dystonia or related neurodevelopmental movement disorders may not directly benefit from this specific research.

What this research studies

Our brains have a complex support network called the extracellular matrix (ECM) that is crucial for how brain cells connect and communicate. We are learning more about how this ECM is built during brain development, especially focusing on a protein called THAP1. This protein is important for the cells that create myelin, a protective layer around nerve fibers, and when THAP1 is faulty, it can lead to a movement disorder called DYT6 dystonia. This project aims to uncover the exact steps by which THAP1 controls the ECM and myelin formation, which could help us understand the root causes of this condition.

Why it matters

Potential benefit: If successful, this work could lead to a deeper understanding of DYT6 dystonia and potentially new ways to address the underlying brain changes.

How similar studies have gone: The hypothesis that specific brain cells regulate the extracellular matrix is new, making this a novel approach to understanding brain development and dystonia.

Where this research is happening

  • Case Western Reserve University
    Cleveland, United States
    Active

Researchers

  • Principal investigator: Yellajoshyula, Dhananjay — Case Western Reserve University
  • Study coordinator: Yellajoshyula, Dhananjay

Related research

Other NIH-funded projects on the same topics.

  • Role of THAP1 in brain cell support cells shaping brain development

    Aims to understand how the THAP1 protein in oligodendrocyte lineage cells helps shape the brain’s environment and myelination during development, which may relate to a movement disorder called DYT6 dystonia.

    NIH research Case Western Reserve University · Cleveland, United States · NIH-11596702

  • Leukocyte RNA biomarkers to help diagnose and monitor dystonia

    A small study will look for RNA signatures in blood that could help diagnose and track dystonia in people who have the condition.

    NIH research University of Tennessee Health Sci Ctr · Memphis, United States · NIH-11440474

  • How a dystonia-linked protein affects brain support cells and myelin

    This project looks at how the THAP1 protein linked to DYT6 dystonia changes the behavior of brain support cells and the surrounding matrix, which could affect myelination in adults with DYT-THAP1.

    NIH research Case Western Reserve University · Cleveland, United States · NIH-11418173

  • Intrathecal baclofen for children with dystonia due to brain injury

    A physician-led study at Baylor College of Medicine will help determine how ITB therapy affects daily life, comfort, and mobility for children with dystonia and related condition after brain injury.

    NIH research Baylor College of Medicine · Houston, United States · NIH-11401768

  • DYT1 Dystonia: Mouse Models to Understand TorsinA and Brain Circuits

    A researcher-led project uses mouse models to explore how a genetic change in DYT1 dystonia affects brain circuits and movement.

    NIH research University of Florida · Gainesville, United States · NIH-11399135

  • Dystonia-specific brain signaling pattern in cerebellum

    Aims to identify a characteristic pattern of nerve cell activity in the cerebellum that is linked to dystonia, with studies in mice and potential implications for people with the condition.

    NIH research Virginia Polytechnic Inst and St Univ · Blacksburg, United States · NIH-11398836

About this research

  1. This is an active NIH-funded research project — typically early-stage science, not a clinical trial accepting patient enrollment.
  2. Some NIH-funded labs run parallel clinical studies or seek volunteers for related work. To check, contact the principal investigator or institution listed above.
  3. For full project details, budget, and progress reports, visit the official NIH RePORTER page.
Last reviewed 2026-11-14 by the Find a Trial editorial team. Information on this page is for educational purposes and is not medical advice. Always consult qualified healthcare professionals about clinical trial participation.