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1 ity, neurodegeneration and susceptibility to epileptic seizure.
2 thology and die 30-60 days postnatal from an epileptic seizure.
3 out (AE3(-/-) ) mice are more susceptible to epileptic seizure.
4 with impaired consciousness with or without epileptic seizure.
5 in mice lowers the threshold for triggering epileptic seizures.
6 dence implicates glutamatergic mechanisms in epileptic seizures.
7 attention for their potential involvement in epileptic seizures.
8 temporally correlates with the emergence of epileptic seizures.
9 s such as ischemic stroke, brain trauma, and epileptic seizures.
10 ted in ERK activation and caused spontaneous epileptic seizures.
11 he feedback control of neuronal circuits and epileptic seizures.
12 KO) mice exhibit brain enlargement and fatal epileptic seizures.
13 n parameters, and long-term effect of DBS on epileptic seizures.
14 ion and to the development and expression of epileptic seizures.
15 both control conditions and during prolonged epileptic seizures.
16 ippocampus in the occurrence and severity of epileptic seizures.
17 le after 30 min of experimental induction of epileptic seizures.
18 e imbalance as a molecular rationale for the epileptic seizures.
19 EEG abnormalities and dose-dependent risk of epileptic seizures.
20 ng the evaluation of gustatory and olfactory epileptic seizures.
21 ppocampal excitability and predisposition to epileptic seizures.
22 nt neural activity typically associated with epileptic seizures.
23 ous insults, including cerebral ischemia and epileptic seizures.
24 onized rhythmic oscillations of sleep and of epileptic seizures.
25 psy but there was no other family history of epileptic seizures.
26 and type 1 InsP3R mutants display ataxia and epileptic seizures.
27 erative conditions such as stroke and severe epileptic seizures.
28 cation, and thereby reduce susceptibility to epileptic seizures.
29 uronal death induced by proneurotrophins and epileptic seizures.
30 column (DCS) of the spinal cord to suppress epileptic seizures.
31 central to the initiation and progression of epileptic seizures.
32 (median follow-up 23.6 years) had unprovoked epileptic seizures.
33 , a disrupted blood-brain barrier (BBB), and epileptic seizures.
34 ting, on-demand CN stimulation could disrupt epileptic seizures.
35 enetic activation has been reported to block epileptic seizures.
36 is that astrogliosis is sufficient to induce epileptic seizures.
37 convulsant drug is used for the treatment of epileptic seizures.
38 hippocampal neuronal injury during prolonged epileptic seizures.
39 is can cause hippocampal neuronal loss after epileptic seizures.
40 iched in the hippocampus, often the focus of epileptic seizures.
41 nsidered during the evaluation of vestibular epileptic seizures.
42 hat appears to be related to the presence of epileptic seizures.
43 Traumatic brain injury often leads to epileptic seizures.
44 to sensory stimuli, and a high incidence of epileptic seizures.
45 the effect of the ketogenic diet in reducing epileptic seizures.
46 re classified at 6 months as having definite epileptic seizures, 228 as having possible epileptic sei
49 nd persistent prevention and modification of epileptic seizures after head injury with a cooling prot
50 nd persistent prevention and modification of epileptic seizures after head injury with a cooling prot
52 monstrate the spontaneous transition between epileptic seizure and spreading depression states as the
53 fast hemodynamic changes during inter-ictal epileptic seizures and 2) temperature variations during
54 e epileptic seizures, 228 as having possible epileptic seizures and 220 as having febrile seizures.
55 AC in cortical gray matter may contribute to epileptic seizures and cell death in diverse diseases of
56 e treatment of patients with psychogenic non-epileptic seizures and generates ideas for future resear
59 w-carbohydrate (ketogenic) diet might reduce epileptic seizures and offer neuroprotection in part bec
62 gy and explosive dynamical transitions as in epileptic seizures and their propagations in the brain.
63 tor cells causes mice to develop progressive epileptic seizure, and dramatically reduces basal synapt
64 tributes to the variability in occurrence of epileptic seizures, and (4) the window for antiepileptog
65 ary studies of patients with focal dystonia, epileptic seizures, and auditory hallucinations indicate
66 pilocarpine-treated animals began to display epileptic seizures, and CB(1) receptor expression was ch
68 pomas, higher incidence of pharmacoresistant epileptic seizures, and more severe neuropsychiatric dis
69 fected tissues, and in plasma in response to epileptic seizures, and point to it as biomarker of hipp
70 system are involved in learning and memory, epileptic seizures, and processing the amyloid precursor
76 r ex vivo and in vivo data, we conclude that epileptic seizures are manifested as the first symptom w
78 vioral domains, as well as hyperactivity and epileptic seizures, as have been reported in humans with
79 s (RE), a childhood disease characterized by epileptic seizures associated with progressive destructi
81 1970s engineers designed systems to predict epileptic seizures based upon quantitative changes in th
82 lmost 40 years, neuroscientists thought that epileptic seizures began abruptly, just a few seconds be
83 re of these syndromes is a predisposition to epileptic seizures but each is associated with different
84 ing to severe neurological symptoms, such as epileptic seizures, but no specific treatment is availab
85 igate the brain amino acid metabolism during epileptic seizures by (18)F-FET PET and to elucidate the
87 e and fertile, and they did not manifest the epileptic seizures characteristic of the Alpl(-/-) model
89 patterns and an increased susceptibility to epileptic seizures consistent with an impairment of cort
90 id 10 significantly reduced the incidence of epileptic seizures, cortical amyloid burden, and neuroin
92 d neurosurgeons using simulated and recorded epileptic seizure data to demonstrate our system's effec
94 trophies), strokes and stroke-like episodes, epileptic seizures, developmental delay, and demyelinati
95 e behavioural testing have shed light on how epileptic seizures disrupt the consciousness system.
96 ce display frequent myoclonus and occasional epileptic seizures, documented by electroencephalographi
97 deo-telemetry database who had 30 documented epileptic seizures during video-EEG recording and who la
99 in the development of hyperexcitability and epileptic seizures following traumatic brain injury (TBI
100 ewly diagnosed, previously untreated partial epileptic seizures from 44 European centres and randomly
102 he galanin neuropeptide in the regulation of epileptic seizures has been established in animal models
103 RY ON THIS ARTICLE : Accurate forecasting of epileptic seizures has the potential to transform clinic
104 e the diagnostic features of psychogenic non-epileptic seizures have been better characterized in rec
108 n that docosahexaenoic acid (DHA) attenuates epileptic seizures; however, the molecular mechanism by
110 molecular model explaining the occurrence of epileptic seizures in association with malignant gliomas
111 providing a noninvasive tool for localizing epileptic seizures in humans because of its high spatial
112 have been identified as a likely trigger of epileptic seizures in mesial temporal lobe epilepsy (MTL
114 integrins, and have been thought to underlie epileptic seizures in patients with cortical malformatio
117 tant in the development and/or generation of epileptic seizures in this mouse strain and may be a sig
118 ults of radiofrequency surgery indicate that epileptic seizures in this syndrome originate and propag
121 nd collaborators show the key role of Bim in epileptic seizure-induced neuronal injury and identify t
123 onal processes implicated in the etiology of epileptic seizures, learning, and memory (see the relate
124 ibe a novel method of adaptively controlling epileptic seizure-like events in hippocampal brain slice
125 rom a small number of patients, suggest that epileptic seizures may begin as a cascade of electrophys
126 Tissue acidosis following ischaemia and epileptic seizures may contribute to neuronal damage, wh
128 e comprising severe retardation, early onset epileptic seizures, optic nerve/cerebellar atrophy, peda
129 whose absence or modification either causes epileptic seizures or, conversely, limits epileptogenesi
130 In patients with impaired consciousness, epileptic seizure, or temporal lobe symptoms of new onse
133 Some evidence suggests that psychogenic non-epileptic seizures (PNES) are associated with increased
135 60 consecutive patients with psychogenic non-epileptic seizures (PNES), 5-10 years after diagnosis.
136 dies of long-term outcome in psychogenic non-epileptic seizures (PNES), and none of long-term healthc
138 ntral nervous system characterized by severe epileptic seizures, progressive degeneration of a single
143 ue plasminogen activator, and so explain the epileptic seizures seen in individuals with more severe
144 neurodevelopmental disorder characterized by epileptic seizures, severe intellectual disability, and
147 among the females, were prone to spontaneous epileptic seizures, suggesting that USF is important in
149 ulti-unit computational neural mass model of epileptic seizure termination and postictal recovery was
150 vances in the understanding and treatment of epileptic seizures that derive from a non-neurocentric v
151 r focal neurological deficits (not including epileptic seizure) that were definitely or possibly rela
152 citation may constitute a mechanism by which epileptic seizures trigger compensatory interictal netwo
153 nd manifests in an altered susceptibility to epileptic seizures, underscoring the importance of FGF-d
154 euronal death induced by proneurotrophins or epileptic seizures was assessed and compared with respon
155 eurons caused by focal cerebral ischemia and epileptic seizures was exacerbated in TNFR-KO mice, indi
156 ited at the time of their first diagnosis of epileptic seizures was undertaken; in those classified 6
157 data to diagnose epilepsy following a single epileptic seizure; we find that a prediction model expla
158 ailable antagonist, JNJ-47965567, suppressed epileptic seizures well beyond the time of treatment and
160 e a possible mechanism for the recurrence of epileptic seizures, which are known to be the results of
161 nized activities, including those underlying epileptic seizures, which often appear as a transformati
162 evelopment of epilepsy and the generation of epileptic seizures will require delineation of the aberr
163 evelopment of epilepsy and the generation of epileptic seizures will undoubtedly benefit from researc
164 e frequently implicated in the generation of epileptic seizures, with temporal lobe epilepsy constitu
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