Written by Dr. Carolyn J. Adamski Edited by Dr. Judit M Perez Ortiz A research group uncovers a drug target to potentially correct motor phenotypes across several cerebellar ataxias. When someone is diagnosed with spinocerebellar ataxia (SCA), their symptoms may look very similar despite the fact that different genes are causing the Read More…
Written by Dr. Chandrakanth Edamakanti Edited by Dr. David Bushart VEGF nanoparticles offer a new avenue for developing treatments for SCA1 and other neurodegenerative disorders Spinocerebellar ataxia type 1 (SCA1) is a neurogenerative disorder with symptoms that typically begin in the third or fourth decade of life. The disease is Read More…
Written by Carrie A. Sheeler Edited by Dr. Marija Cvetanovic Group 1 p21-associated kinases (PAKs) present a new avenue for SCA1 research. Spinocerebellar ataxia type 1 (SCA1) is caused by a specific mutation in the Ataxin1 gene, which causes the protein that’s made from that gene (also called Ataxin1) to Read More…
Written by Dr. Terri M Driessen Edited by Dr. David Bushart Mitochondrial dysfunction and loss of mitochondrial DNA is identified in an SCA1 mouse model. Spinocerebellar ataxia type 1 (SCA1) is a neurodegenerative disorder that causes cell death in certain parts of the brain. The brain regions affected play important Read More…
Written by Dr. Marija Cvetanovic Edited by Dr. Maxime W. Rousseaux New research (published Nov. 2018) reveals promising potential genetic therapy for SCA1. A research team comprised of scientists from academia and industry have tested a new treatment for Spinocerebellar ataxia type 1 (SCA1), bringing disease-modifying therapy one step closer Read More…
Written by Hillary Handler Edited by Dr. David Bushart How researchers found that SCA1 is caused by an expanded, repetitive DNA sequence – a discovery that has allowed for accurate SCA1 diagnosis and more focused research strategies Before the true genetic basis of Spinocerebellar Ataxia Type 1 (SCA1) was discovered, Read More…
Written by Dr. Laura Bowie Edited by Dr. Hayley McLoughlin Researchers use genetics to find new pathways that impact the onset of polyglutamine disease symptoms The cells of the human body are complex little machines, specifically evolved to fulfill certain roles. Brain cells, or neurons, act differently from skin cells, which, in Read More…
Written by Dr. Chandrakanth Edamakanti Edited by Dr. Hayley McLoughlin Recent study decodes the protein signature of toxic Purkinje cells, finding that Purkinje cell mTORC1 signaling is impaired in SCA1. Spinocerebellar ataxia type 1 (SCA1) is a late onset cerebellar neurodegenerative disorder caused by a mutation (in this case, an Read More…
Written By Dr. Marija Cvetanovic Edited by Dr. Sriram Jayabal Protein kinase C: one protein that may help to protect against cerebellar neuronal dysfunction & death in spinocerebellar ataxias Among the estimated 86 billion brain cells (known as “neurons”) in the human body (Azevedo et al., 2009), there is a Read More…
Written by Logan Morrison Edited by Dr. Hayley McLoughlin Research group uncovers the key molecular interaction that causes spinocerebellar ataxia type 1 (SCA1). When we talk and think about human disease, it is natural to focus on causes. For some disorders, the source of the problem is clear: there’s no Read More…
Our generous donors help us fund promising Ataxia research and offer support services to people with Ataxia. Your gift today will help us continue to deliver on our mission to improve the lives of persons affected by Ataxia.
Join for FREE today! Become a part of the community that is working together to find a cure. As a member you will receive access to the latest Ataxia news with our e-newsletter and Generations publication.
501(c)(3)
EIN 41-0832903
Mailing Address:
PO Box 27986
Golden Valley, MN 55427
Physical Address:
600 Highway 169 South
Suite 1725
Minneapolis, MN 55426
763-553-0020
763-553-0167 (Fax)
Sign up today to receive:
