小脑
火种
谷氨酸受体
神经科学
病理生理学
癫痫
扁桃形结构
海马体
免疫印迹
心理学
基因剔除小鼠
内分泌学
内科学
化学
生物
医学
生物化学
受体
基因
作者
Carmen Rubio,Aldo Eguiluz‐Melendez,Cristina Trejo‐Solís,Veronica Ramírez-R.,Moisés Rubio‐Osornio,Artemio Rosiles-Abonce,Juan Carlos Martínez‐Lazcano,Edith González‐Guevara,Carlos Paz
出处
期刊:Cns & Neurological Disorders-drug Targets
[Bentham Science Publishers]
日期:2016-03-25
卷期号:15 (6): 723-729
被引量:7
标识
DOI:10.2174/1871527315666160321105818
摘要
The single feature of all malformations in cortical development is the clinical association with epilepsy. It has been proven that Sox-1 expression is essential during neurodevelopment and it is reported that Sox-1 knockout mice present spontaneous generalized seizures. Particularly in cerebellum, Sox-1 plays a key role in the Bergmann´s glia (BG) function, which allows the correct function of the Purkinje cells (PC). The targets of PC are the dentate and interpositus nuclei, which form the main cerebellar efferents involved in the physiopathology of epilepsy. Here we present the Sox-1 expression in cerebellum of rats during electric amygdala-kindling. We obtained seizures and once they had 3, 15 and 45 electric stimuli, the animals were sacrificed; the cerebellum was processed for inmunohistochemistry and Western blot analysis was performed to determine Sox-1 expression. Liquid chromatography was performed to examine gammaaminobutyric acid (GABA) and glutamate concentration. According to the literature, a progressive increase was observed in the electrographic and behavioral parameters. We found that Sox-1 expression in 15 and 45-stimuli groups had a statistically significant decrease as compared with controls, while the 3-stimuli group was similar to the control group. The concentration of glutamate was increased in rats with 45 stimuli. We can conclude that Sox-1 expression decreases as the number of seizures increases, and this is probably due to an altered glutamate regulation by a dysfunctional BG. In this way, we can suggest this mechanism as a one possible explanation of how the cerebellum participates in the pathophysiology of epilepsy.
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