コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 tor of seizure freedom following surgery for cortical dysplasia.
2 ological evidence of developmental tumors or cortical dysplasia.
3 such as tuberous sclerosis complex and focal cortical dysplasia.
4 h non-lesional and in association with focal cortical dysplasia.
5 psy surgery with hemimegalencephaly or focal cortical dysplasia.
6 annel in a mouse model of frontal lobe focal cortical dysplasia.
7 terotopia and diffuse megalencephaly without cortical dysplasia.
8 with an ultra-rare DEPDC5 variant and focal cortical dysplasia.
9 ly had schizencephaly, heterotopia, or focal cortical dysplasia.
10 se the formation of neural networks in focal cortical dysplasia.
11 arachnoid space results in the formation of cortical dysplasia.
12 y, centrally predominant polymicrogyria-like cortical dysplasia.
13 l organization consistent with type Ia focal cortical dysplasia.
14 to differentiate between type I and type II cortical dysplasia.
15 factors are involved in the pathogenesis of cortical dysplasia.
16 athological aging, and the presence of focal cortical dysplasia.
17 meningeal differentiation can lead to severe cortical dysplasia.
18 aches for childhood epilepsy associated with cortical dysplasia.
19 daptor proteins, FE65 and FE65L1, results in cortical dysplasia.
20 t in epilepsy and mental retardation without cortical dysplasia.
21 bitory synaptic transmission in experimental cortical dysplasia.
22 well as in the pathogenesis of certain human cortical dysplasias.
23 y a causal role in the pathogenesis of focal cortical dysplasias.
25 velopmental abnormalities consisted of focal cortical dysplasia (5), heterotopia (2), hamartoma (3),
26 f MTOR pathway genes is an emerging cause of cortical dysplasia and epilepsy in the paediatric popula
27 aly and intractable epilepsy, one with focal cortical dysplasia and intractable epilepsy, and one dys
28 is linked to the first description of focal cortical dysplasia and limbic encephalitis, the patholog
30 n utero irradiation of rats produces diffuse cortical dysplasia and neuronal heterotopia in the neoco
31 a, two focal cortical dysplasia, one diffuse cortical dysplasia and one microdysgenesis), acquired in
33 f central pachygyria and polymicrogyria-like cortical dysplasia and simplified gyral malformation syn
34 cytomegalic neurons in focal or hemispheric cortical dysplasia and to determine whether the activity
35 ficial, particularly for patients with focal cortical dysplasia and unilateral hemispheric malformati
36 out the prevalence of HPV infection in focal cortical dysplasias and about its potential importance a
39 ents, including hemimegalencephaly and focal cortical dysplasia, are common causes of intractable pae
40 egalencephaly, hemimegalencephaly, and focal cortical dysplasia as part of a single pathogenic spectr
41 Long-term overexpression of Wnt3a led to cortical dysplasia associated with the formation of larg
45 tions in mTOR pathway genes, severe forms of cortical dysplasia can also result from activating mutat
47 two groups: patients with highly asymmetric cortical dysplasia caused by the common p.E17K mutation,
49 in brain samples resected from patients with cortical dysplasia (CD), which was correlated with durat
52 atients with lesional epilepsies (e.g. focal cortical dysplasia, epilepsy-associated tumours) will pr
54 ons of cortical development, including focal cortical dysplasia (FCD) and hemimegalencephaly (HME), a
56 T Tuberous sclerosis complex (TSC) and focal cortical dysplasia (FCD) are epileptogenic cortical malf
57 Tuberous sclerosis complex (TSC) and focal cortical dysplasia (FCD) are focal malformations of cort
58 rpose of this study was to evaluate if focal cortical dysplasia (FCD) co-localization to cortical fun
59 nd ultrastructural patterns in type II focal cortical dysplasia (FCD) have been studied to explain th
63 f tuberous sclerosis complex (TSC) and focal cortical dysplasia (FCD) is early life refractory epilep
64 al epilepsy, typically associated with focal cortical dysplasia (FCD) type 2, understanding the mecha
68 components are somatically mutated in focal cortical dysplasia (FCD), a neurological disorder charac
70 ent in a developmental disorder, human focal cortical dysplasia (FCD), focusing on chloride regulatio
71 e emerging as a major cause of type II focal cortical dysplasia (FCD), hemimegalencephaly (HME) and t
73 x (TSC)-associated cortical tubers and focal cortical dysplasia (FCD), we performed qualitative and s
77 pithelial tumours (DNTs; eight cases), focal cortical dysplasia (FCD; 14 cases) and hippocampal scler
78 ohistochemistry in the core of type II focal cortical dysplasias (FCD-II), at the FCD boundary (peril
82 of CNTNAP2 in Old Order Amish children with cortical dysplasia, focal epilepsy, relative macrocephal
83 g algorithm for automated detection of focal cortical dysplasias, giving physicians greater confidenc
84 In the developmental group, low-grade focal cortical dysplasias had better outcome than heterotopia
85 ing this human model, we mimicked some focal cortical dysplasia hallmarks, such as impaired cell prol
87 he complex structural abnormalities of focal cortical dysplasia have been proposed - from Taylor et a
88 ions of cortical development including focal cortical dysplasia, hemimegalencephaly and megalencephal
90 splay type I lissencephaly, a severe form of cortical dysplasia hypothesized to result from abnormal
91 epileptic cortices presenting type II focal cortical dysplasia (IIa and b), hippocampi with or witho
94 alities like hippocampal sclerosis and focal cortical dysplasia in epilepsy, crucial for accurate sur
96 lioneuronal heterotopias are a focal type of cortical dysplasia in which neural cells migrate aberran
102 h drug-resistant epilepsy.However, in type I cortical dysplasia, MR imaging is often normal, and also
103 ) central pachygyria and polymicrogyria-like cortical dysplasia (n = 24); (iv) generalized polymicrog
104 = 24); (iv) generalized polymicrogyria-like cortical dysplasia (n = 6); and (v) a 'simplified' gyral
105 s, 10 low-grade glioma, 3 cavernoma, 4 focal cortical dysplasia; NEL_INST: 11 patients, 33 lesions, a
106 eveal the presence and the border of type II cortical dysplasia on MRI, a quantitative ROI-based anal
107 egalencephaly, two polymicrogyria, two focal cortical dysplasia, one diffuse cortical dysplasia and o
108 diagnosed with multiple sclerosis, one with cortical dysplasia, one with pineal hemorrhage and one w
109 ng abnormalities, i.e. polymicrogyria, focal cortical dysplasia or normal imaging, and EEG findings,
111 suggests that new cells may arrive in focal cortical dysplasia, perhaps deriving in part from the su
112 f the most common or enlightening MCD: focal cortical dysplasia, periventricular heterotopia, polymic
114 tardation and seizures associated with focal cortical dysplasias, subependymal nodules, and subependy
115 growth (megalencephaly) as well as segmental cortical dysplasia (such as hemimegalencephaly, focal co
116 ranges from lissencephalic to polymicrogyric cortical dysplasias, suggesting shared pathogenic mechan
117 n large dysplastic cells microdissected from cortical dysplasia surgical specimens was used to identi
118 for surgical outcome in patients with focal cortical dysplasia than the presence of a lesion on magn
119 megalencephaly, hemimegalencephaly and focal cortical dysplasia, the most common cause of intractable
120 ype II dysplasias and in only some of type I cortical dysplasias.THE MOST COMMON FINDINGS ON MRI IMAG
121 logy, hippocampal sclerosis, malformation of cortical dysplasia, tumor, encephalitis, and gliosis.
122 ell growth (ie, in the mTOR pathway in focal cortical dysplasia type 2), which are acquired in neuron
123 ion including AKT3 in association with focal cortical dysplasia type 2a with hyaline astrocytic inclu
126 dren with hemimegalencephaly (n = 16), focal cortical dysplasia type I and related phenotypes (n = 48
127 ase genes like those identified in the focal cortical dysplasia type I cohort were found in 63 neurol
128 se-causing somatic variants across the focal cortical dysplasia type I cohort, four individuals in th
129 al cortical dysplasia type II, neither focal cortical dysplasia type I nor III had somatic variants i
130 at 2 years were seen for patients with focal cortical dysplasia type I or mild malformation of cortic
131 , we induced various mosaic burdens in focal cortical dysplasia type II (FCD II) mice, featuring mTOR
132 ype I and related phenotypes (n = 48), focal cortical dysplasia type II (n = 44), or focal cortical d
134 trocytes of all hemimegalencephaly and focal cortical dysplasia type II specimens, regardless of the
136 s with hemimegalencephaly and 29% with focal cortical dysplasia type II, we identified pathogenic var
143 association between HPV infection and focal cortical dysplasia type IIb, and its reproducibility acr
144 roportion of pathological specimens of focal cortical dysplasia type IIb, but not in control specimen
147 ecently in SLC35A2 in individuals with focal cortical dysplasia (type I) or non-dysplastic epileptic
148 ndividuals with hemimegalencephaly and focal cortical dysplasia (type II), and more recently in SLC35
151 thological diagnosis among adults, and focal cortical dysplasia was the most common diagnosis among c
152 ions of cortical development in 19.8% (focal cortical dysplasia was the most common type, 52.7% of ca
153 or the cognitive impairment in the rats with cortical dysplasia was the underlying brain substrate, n
154 OR variants are mostly associated with focal cortical dysplasia, whereas pathogenic PIK3CA variants a
155 with focal or multifocal polymicrogyria-like cortical dysplasia with abnormal and simplified gyral pa
156 rtical dysplasia are recognized.Type I focal cortical dysplasia with mild symptomatic expression and
158 esected TSC tubers, FCDs with balloon cells, cortical dysplasia without balloon cells, and histologic