
AbstractMutations in cytoskeletal proteins can cause early infantile and childhood epilepsies by misplacing newly born neurons and altering neuronal connectivity. In the adult epileptic brain, cytoskeletal disruption is often viewed as being secondary to aberrant neuronal activity and/or death, and hence simply represents an epiphenomenon. Here, we review the emerging evidence collected in animal models and human studies implicating the cytoskeleton as a potential causative factor in adult epileptogenesis. Based on the emerging evidence, we propose that cytoskeletal disruption may be an important pathogenic mechanism in the mature epileptic brain.
Pediatric, Epilepsy, Biomedical and Clinical Sciences, Ndel1, Neurosciences, cytoskeleton, Neurodegenerative, Feature Articles, Brain Disorders, Neurological, 2.1 Biological and endogenous factors, Biological psychology, epileptogenesis, Aetiology, neuronal excitability, seizures
Pediatric, Epilepsy, Biomedical and Clinical Sciences, Ndel1, Neurosciences, cytoskeleton, Neurodegenerative, Feature Articles, Brain Disorders, Neurological, 2.1 Biological and endogenous factors, Biological psychology, epileptogenesis, Aetiology, neuronal excitability, seizures
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