K+ Channels and Some Familiar Antiepileptic Drugs: Evaluation of Their the Structure-Activity Relationships with Molecular Docking Analysis

Esra Nur Çakmak, M. Gür, B. Kiran
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Abstract

This study includes the structure-activity relationship of active molecules that are commonly used in the treatment of convulsive seizures in epileptic diseases. Well-known epileptic active molecules studied are: Vigabatrin, Lokosamidine, Zonisamide, Oxcarbazepine, Levetiresetam, Tiagabine, Topiramate, Lamotrigin, Gabapentin, Felbamat, Ethosuximide, Valproic Acid, Mesuximide, Ethotoin, Primidon, Trimethadion, Phenytoin, Remasemide, Mephenytoin. These molecules, which were selected considering the physiopathological mechanisms of action of epileptic disease, were considered suitable for molecular docking studies since they were used as a potential antiepileptic agent. In addition, it was focused on the potassium channels, which were prominent in the mechanisms of epilepsy. During the action potential that triggers seizure formation, inward rectifying potassium channels (KIR3.2) make a important role providing the flow of K+ ions. Thus, PDB ID: 4KFM receptor was chosen for molecular docking study, since its act as an agonist according to its activity on the canal in the case of epileptic seizures formation. The result of molecular docking analysis demonstrated that Phenytoin gave the best binding affinity for 4KFM with a value of -6.2 kcal/mol. Other analysis in descending order (as kcal/mol); Oxcarbazepine (-6,0), Remasemide (-5.9), Topiramate and Primidon (-5.8), Tiagabine, Felbamat and Mesuximide (-5.7), Lamotrigin (-5.6) Zonisamide, Ethotoin and Mephenytoin, Lokosamidine (-5.5), Gabapentin (-4.8), Trimethadion (-4.7), Ethosuximide (-4.6), Levetiresetam (-4.5), Vigabatrin (-4.0), Valproic Acid (-3.9) determined as.
K+通道与常用抗癫痫药物的构效关系及分子对接分析
本研究包括在治疗癫痫性疾病的惊厥发作中常用的活性分子的结构-活性关系。已知的癫痫活性分子有:维加巴林、洛沙脒、唑尼沙胺、奥卡西平、左旋替西坦、替加加滨、托吡酯、拉莫三嗪、加巴喷丁、费巴马、乙索酰亚胺、丙戊酸、甲苏酰亚胺、乙托酰亚胺、普里米东、甲美沙酮、苯妥英、雷马塞米、甲苯妥英。这些分子的选择考虑了癫痫疾病的生理病理作用机制,被认为是适合分子对接研究的,因为它们被用作潜在的抗癫痫药物。此外,还重点研究了在癫痫发病机制中起重要作用的钾离子通道。在触发癫痫发作形成的动作电位过程中,向内整流钾通道(KIR3.2)在提供K+离子流动方面发挥了重要作用。因此,我们选择PDB ID: 4KFM受体进行分子对接研究,因为在癫痫发作形成的情况下,PDB ID: 4KFM受体根据其对管的活性发挥激动剂的作用。分子对接分析结果表明,苯妥英对4KFM的结合亲和力最高,为-6.2 kcal/mol。其他按降序分析(以千卡/摩尔为单位);奥卡西平(-6,0),雷马塞米(-5.9),托吡酯和普里米东(-5.8),替加加滨,菲尔巴马和美苏西米(-5.7),拉莫三嗪(-5.6),唑尼沙胺,乙妥英和美苯妥英,洛沙脒(-5.5),加巴喷丁(-4.8),甲美沙酮(-4.7),乙索西米(-4.6),左旋西坦(-4.5),维加巴林(-4.0),丙戊酸(-3.9)测定为
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