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1 resis, epilepsy and progressive cerebral and cerebellar atrophy.
2  volume loss, corpus callosum hypoplasia and cerebellar atrophy.
3  associated with intellectual disability and cerebellar atrophy.
4  addition to ataxia, one patient also showed cerebellar atrophy.
5 iation of the repeat size with the degree of cerebellar atrophy.
6 lopmental delay, cognitive disabilities, and cerebellar atrophy.
7 oclonic jerks, progressive microcephaly, and cerebellar atrophy.
8          MRI showed progressive cerebral and cerebellar atrophy.
9 xhibited moderately progressive brain and/or cerebellar atrophy.
10 nia, non-progressive ataxia, and progressive cerebellar atrophy.
11 ted in neurodegenerative processes including cerebellar atrophy.
12 sal cerebellar sulci widening, supportive of cerebellar atrophy.
13 seases involving progressive gait ataxia and cerebellar atrophy.
14 f the brains of our patients revealed marked cerebellar atrophy.
15 ive children showed generalised cerebral and cerebellar atrophy.
16                 Neuroimaging showed isolated cerebellar atrophy.
17 drome, hallmarks of which include ataxia and cerebellar atrophy.
18 p1 resulted in age-dependent and progressive cerebellar atrophy.
19 pands the genetic differential diagnosis for cerebellar atrophy.
20 terior forceps and non-specific cortical and cerebellar atrophy.
21 , hypotonia, seizures, visual impairment and cerebellar atrophy.
22 ion tensor MRI metrics, suggesting secondary cerebellar atrophy.
23  in OXR1 were reported to be associated with cerebellar atrophy.
24 g pair demonstrated progressive cerebral and cerebellar atrophy.
25 ght be considered in the etiopathogenesis of cerebellar atrophy: (1) transneuronal degeneration and n
26                           Brain MRI revealed cerebellar atrophy (100%), white matter volume loss (76.
27 , and magnetic resonance imaging evidence of cerebellar atrophy (33%).
28 ng features included cerebral atrophy (75%), cerebellar atrophy (60%), callosal anomalies (57%) and s
29 cerebellar Purkinje neurons with consecutive cerebellar atrophy, although Purkinje neurons are only m
30 son, who died at age 3 years) had pronounced cerebellar atrophy and a renal biopsy specimen that show
31 P firing frequency that correlates with both cerebellar atrophy and ataxia over the animal's first ye
32 atter fraction, T2 lesion volume, metrics of cerebellar atrophy and cerebellar lesion volume) and mot
33 impairment was predicted by a combination of cerebellar atrophy and decreased cerebellar-sensorimotor
34 nically by ataxia and neuropathologically by cerebellar atrophy and granule cell loss, gliosis, and P
35  an absent or disappearing putamen, variable cerebellar atrophy and highly variable cerebral atrophy.
36 observed, recapitulating human phenotypes of cerebellar atrophy and intellectual disability.
37 ble for ARCA that is mainly characterized by cerebellar atrophy and lack of peripheral neuropathy.
38                       Brain MRI demonstrated cerebellar atrophy and leukoencephalopathy.
39 ataxias (SCAs) are diseases characterized by cerebellar atrophy and loss of Purkinje neurons caused b
40 utosomal-recessive neurological disease with cerebellar atrophy and lysosomal dysfunction.
41 tage-gated calcium channel, Cacna1a, develop cerebellar atrophy and mutations in the homologous human
42 degenerative syndrome associated with marked cerebellar atrophy and peripheral neuropathy.
43  heterogeneous group of disorders exhibiting cerebellar atrophy and Purkinje cell degeneration whose
44 pes arising from Purkinje cell degeneration, cerebellar atrophy and varying degrees of degeneration o
45 ble combination of corpus callosum thinning, cerebellar atrophy and white matter changes.
46                    Neuroimaging demonstrated cerebellar atrophy and white matter lesions, respectivel
47 a significant correlation with MRI scores of cerebellar atrophy, and a significant correlation with c
48 ities, ipsilateral thalamic or contralateral cerebellar atrophy, and compensatory calvarial changes.
49 velopmental syndrome with sleep disturbance, cerebellar atrophy, and facial dysmorphisms, and suggest
50 al disability, hypotonia, cerebellar ataxia, cerebellar atrophy, and facial dysmorphisms.
51  predominance in the lower extremities, mild cerebellar atrophy, and hyperekplexia-like symptoms.
52 h as perisylvian polymicrogyria, cerebral or cerebellar atrophy, and hypoplasia of the corpus callosu
53 netic movement disorders, severe early-onset cerebellar atrophy, and in part olivary and brainstem de
54 ntal delay, hypotonia, early-onset seizures, cerebellar atrophy, and osteopenia.
55 ent intellectual disability, language delay, cerebellar atrophy, and seizures.
56  hypointensity of the globus pallidus, ponto-cerebellar atrophy, and thin corpus callosum.
57  developmental delay, hypotonia, strabismus, cerebellar atrophy, and variable short stature.
58 ng cerebral atrophy (aOR = 2.69, p = 0.027), cerebellar atrophy (aOR = 3.34, p = 0.013), cerebellar w
59  and intellectual disability, with prominent cerebellar atrophy as a key neuroradiographic finding.
60 gly efficient in preventing motor neuron and cerebellar atrophy, as demonstrated in mouse models, fli
61 her displays later-onset encephalopathy with cerebellar atrophy, ataxia and dystonia.
62  been shown to display mid-onset progressive cerebellar atrophy, but genetic modeling of SCA13 by exp
63 als with ataxia-telangiectasia have reported cerebellar atrophy; but abnormalities of motor control c
64 lizumab treatment, especially in cases where cerebellar atrophy can be visualized by magnetic resonan
65 ture epilepsy, tremor, nystagmus, hypotonia, cerebellar atrophy, cognitive deficits, and global devel
66                                The extent of cerebellar atrophy correlated with decreased resting-sta
67 ed with volumetric measures of T2 lesions or cerebellar atrophy, diffusivity measures of middle or su
68 sive encephalopathy characterized by extreme cerebellar atrophy due to almost total granule neuron lo
69 brain magnetic resonance imaging feature was cerebellar atrophy, even in patients without cerebellar
70  30s and 40s and show predominant ataxia and cerebellar atrophy features on imaging.
71 disorder consisting of cognitive impairment, cerebellar atrophy/hypoplasia, motor dysfunction with at
72 erebral volume loss in 87.5% and progressive cerebellar atrophy in 70.8%, indicating a neurodegenerat
73 c quadriparesis and progressive cortical and cerebellar atrophy in an effort to determine the genetic
74 oencephalopathy, and on its possible role in cerebellar atrophy in HIV-infected individuals.
75 h ataxia or severe hypotonia, nystagmus, and cerebellar atrophy in more than half of the patients.
76 ated with midbrain atrophy in PSP, and ponto-cerebellar atrophy in MSA-P.
77 ailability of coordinate data of grey matter cerebellar atrophy in patients were included.
78  the cerebellum, and the particularly severe cerebellar atrophy in some of the patients.
79 velopmental delay, hypotonia, scoliosis, and cerebellar atrophy in three families.
80 ll death in culture, and leads to ataxia and cerebellar atrophy in transgenic mice.
81 ze in SCI compared with control subjects and cerebellar atrophy increased with increasing time post i
82              These findings demonstrate that cerebellar atrophy is related to both increases and decr
83                          Given the fact that cerebellar atrophy is seen in other IGDs, flow cytometry
84 tural abnormalities (eg, rapidly progressive cerebellar atrophy), myopathies (including congenital mu
85 gies, including motor coordination disorder, cerebellar atrophy, neuronal loss in the cerebellum and
86                  Intellectual disability and cerebellar atrophy occur together in a large number of g
87 vere intellectual disability and progressive cerebellar atrophy on brain imaging.
88 , mild oculomotor abnormalities, and diffuse cerebellar atrophy on brain imaging.
89 eurological features including ataxia and/or cerebellar atrophy on brain MRI.
90 itive/psychiatric features, and cerebral and cerebellar atrophy on magnetic resonance imaging but abs
91                 Six patients had evidence of cerebellar atrophy on magnetic-resonance imaging.
92 Pathologically, SCA2 presents as olivo-ponto-cerebellar atrophy (OPCA).
93 e ataxia with Purkinje cell degeneration and cerebellar atrophy, partially resembling the consequence
94  early onset epileptic seizures, optic nerve/cerebellar atrophy, pedal oedema, and early death.
95  with infantile spinal motor neuron disease, cerebellar atrophy, progressive microcephaly and profoun
96                                              Cerebellar atrophy rates were better discriminators of M
97  these mice exhibited neuronal preservation, cerebellar atrophy reduction, smaller mutant ataxin-3 in
98                                        These cerebellar atrophied regions share robust and selective
99 he functional connectivity patterns of these cerebellar atrophy regions.
100 hat coexpress cyPrP and PrP(C) exhibit focal cerebellar atrophy, scratching behavior, and gait abnorm
101 l disability, cerebellar ataxia, early-onset cerebellar atrophy, sensorineural hearing loss, and the
102      Patients with CAA show more subcortical cerebellar atrophy than HC or patients with AD and more
103 han HC or patients with AD and more cortical cerebellar atrophy than HCs.
104 hable recessive syndrome in 12 families with cerebellar atrophy together with ataxia, coarsened facia
105 y, delayed myelination, callosal hypoplasia, cerebellar atrophy, walking and speech impairments, dysm
106                                  Progressive cerebellar atrophy was also noted.
107                                              Cerebellar atrophy was observed in hepatic WD without ne
108                                              Cerebellar atrophy was universal on MRI (100%), with cer
109 lido-pyramidal syndrome, iron deposition and cerebellar atrophy, we identified a homozygous p.G53R mu
110               Across 54 studies, clusters of cerebellar atrophy were found for AD, ALS, FTD, MSA, and
111 netic resonance imaging revealed symmetrical cerebellar atrophy, which appeared progressive, and a pr
112                  Chi3 Tg mice exhibit severe cerebellar atrophy with a significant loss of granule ce
113  severe and progressive brain, brainstem and cerebellar atrophy, with hypomyelination in most.
114      Magnetic resonance imaging demonstrated cerebellar atrophy without white matter lesions and ster

 
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