| Literature DB >> 26088884 |
Felicitas Becker1, Julian Schubert2, Sarah Weckhuysen3, Arvid Suls4, Steffen Grüninger5, Elisabeth Korn-Merker6, Anne Hofmann-Peters7, Jürgen Sperner8, Helen Cross9, Kerstin Hallmann10, Christian E Elger11, Wolfram S Kunz12, René Madeleyen13, Holger Lerche14, Yvonne G Weber15.
Abstract
In the recent years, several neurological syndromes related to defects of the glucose transporter type 1 (Glut1) have been descried. They include the glucose transporter deficiency syndrome (Glut1-DS) as the most severe form, the paroxysmal exertion-induced dyskinesia (PED), a form of spastic paraparesis (CSE) as well as the childhood (CAE) and the early-onset absence epilepsy (EOAE). Glut1, encoded by the gene SLC2A1, is the most relevant glucose transporter in the brain. All Glut1 syndromes respond well to a ketogenic diet (KD) and most of the patients show a rapid seizure control. Ketogenic Diet developed to an established treatment for other forms of pharmaco-resistant epilepsies. Since we were interested in the question if those patients might have an underlying Glut1 defect, we sequenced SLC2A1 in a cohort of 28 patients with different forms of pharmaco-resistant epilepsies responding well to a KD. Unfortunately, we could not detect any mutations in SLC2A1. The exact action mechanisms of KD in pharmaco-resistant epilepsy are not well understood, but bypassing the Glut1 transporter seems not to play an important role.Entities:
Keywords: Antiepileptic drugs; Epilepsy; Genetics; Glut1 deficiency syndrome; Pharmacoresistance; SLC2A1
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Year: 2015 PMID: 26088884 DOI: 10.1016/j.eplepsyres.2015.04.012
Source DB: PubMed Journal: Epilepsy Res ISSN: 0920-1211 Impact factor: 3.045