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1 anded, causes spinocerebellar ataxia type 6 (SCA6).
2 ated, suggesting a potential new therapy for SCA6.
3 ential predictor of future motor deficits in SCA6.
4 motor dysfunction at a pre-clinical stage of SCA6.
5 inocerebellar ataxias: SCA1, SCA2, SCA3, and SCA6.
6 There are few animal models of SCA6.
7 .01] per additional SARA point; p=0.0195) in SCA6.
8 DnaJ-1 as a potential therapeutic target for SCA6.
9 with SCA3, and 0.80 (0.09) in patients with SCA6.
10 potential mechanism for the pathogenesis of SCA6.
11 adjacent to the genes for Cayman ataxia and SCA6.
12 e CACNA1A protein lead to PC degeneration in SCA6.
13 reached or exceeded the pathogenic range for SCA6.
14 d autosomal dominant spinocerebellar ataxia, SCA6.
15 ive oculomotor studies in four kindreds with SCA6.
16 its receptor tropomyosin kinase B (TrkB) in SCA6.
17 cant spinal cord differences were evident in SCA6.
18 ts, we examined the endo-lysosomal system in SCA6.
19 for the importance of early intervention for SCA6.
21 etic ataxias were Friedreich's ataxia (22%), SCA6 (14%), EA2 (13%), SPG7 (10%) and mitochondrial dise
23 ing the more prevalent SCA1, SCA2, SCA3, and SCA6 along with SCA7 and SCA17 are caused by expansion o
27 rain barrier, is a promising therapeutic for SCA6 and argue for the importance of early intervention
28 ceptors, identifying coding variants between SCA6 and NA32 which could contribute to unique capacitie
29 ao genotypes (ICS1, WFT, Gu133, Spa9, CCN51, Sca6 and Pound7) to better understand their reactions to
33 n about the steps leading to degeneration in SCA6 and the means to protect neurons in this disease ar
34 nalysis of the disease-resistant cacao clone SCA6 and the susceptible clone NA32 to characterize basa
35 ive genetic testing for SCA1, SCA2, SCA3, or SCA6 and with progressive, otherwise unexplained ataxia
37 oral accuracy occurs in all individuals with SCA6, and can be explained by lesser temporal variabilit
38 proteins are also responsible for SCA1-SCA3, SCA6, and SCA17; however, the converging and diverging p
46 can be a potential therapeutic strategy for SCA6, here we created knockin mice that exclusively expr
48 invariance and more severe ataxia than other SCA6 individuals.SIGNIFICANCE STATEMENT Variability is a
54 PCs in mice reveals that only CT-long causes SCA6-like symptoms, i.e., deficits in eyeblink condition
59 the P/Q-type channel is sufficient to cause SCA6 pathogenesis in mice and identifies EBC as a new di
61 l transport and function could contribute to SCA6 pathophysiology through alterations to BDNF-TrkB si
62 Our results showed that Ca(2+) channels from SCA6 patients display near-normal biophysical properties
63 human CT splice variants, as predicted from SCA6 patients, in PCs of mice using viral and transgenic
64 ically in cytosolic and nuclear fractions in SCA6 patients, is associated with the SCA6 pathogenesis.
68 1ACT, mutations in which are associated with SCA6, that controls expression of genes important for ce
74 us, in this large study of motor features in SCA6, we provide novel evidence for the existence of sub
76 tes the progressively degenerative nature of SCA6 when expressed in various fly tissues and the prese
77 sociated with spinocerebellar ataxia type 6 (SCA6), whereas MPc splices to an immediate stop codon, r
79 the first Drosophila melanogaster models of SCA6, which express the entire human alpha1ACT protein w
80 cerebellar vermis tissue in a mouse model of SCA6, which revealed widespread dysregulation of genes a
81 We provide new evidence that a subset of SCA6 with greater loss of GM in cerebellum lobule VI exh