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Pharmacokinetic, pharmacodynamic, and pharmacogenetic targeted therapy of antiepileptic drugs.

机译:抗癫痫药的药代动力学,药效学和药理遗传学靶向治疗。

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Therapeutic drug monitoring (TDM) is widely accepted as a method to improve the effectiveness and safety of the first generation antiepileptic drugs (AEDs) and to identify an individual's optimum concentration. Like the older AEDs, the new AEDs also have significant pharmacokinetic variability. A similar relationship between concentration and effect for the new and old AEDs in experimental seizure models suggests that it is reasonable to use TDM for the new AEDs. With the addition of generic formulations of the new AEDs, TDM can play an important role to validate bioequivalence in patients. There is a history of problems with generics of the older AEDs, primarily carbamazepine and phenytoin. The Biopharmaceutics Classification System, which correlates the solubility and permeability of a drug with oral drug absorption, predicts that there should be no significant problems with the majority of the new AEDs. Because of the controversy over the risk-benefit of generic substitution of AEDs, the use of TDM will provide a way to ensure patient safety while establishing that generics of AEDs proven to be bioequivalent in population studies are also bioequivalent in individuals. The goal of personalized medicine is to use genetic testing to target therapy and identify those individuals unlikely to respond to a drug or likely to respond adversely to the same drug. Of all the AEDs, only phenytoin undergoes significant metabolism by cytochrome P450 isozymes with significant genetic polymorphisms (CYP2C9, CYP2C19). Studies are still needed to identify genetic and biomarkers to identify patients at risk for serious idiosyncratic reactions. There have been significant advances in the understanding of the role of genetics in idiopathic as well as acquired epilepsies. Identification of experimental and clinical evidence linking functional changes associated with gene mutations to epilepsy syndromes will help provide new molecular targets for future AEDs.
机译:治疗药物监测(TDM)作为提高第一代抗癫痫药物(AED)的有效性和安全性并确定个人最佳浓度的方法而被广泛接受。与旧的AED一样,新的AED也具有明显的药代动力学变异性。在实验性癫痫发作模型中,新旧AED的浓度和作用之间存在相似的关系,这表明将TDM用于新AED是合理的。通过添加新型AED的通用配方,TDM可以在验证患者的生物等效性方面发挥重要作用。较老的AED仿制药(主要是卡马西平和苯妥英钠)存在问题的历史。生物药物分类系统将药物的溶解度和渗透性与口服药物吸收相关联,它预测大多数新AED不应出现重大问题。由于有关AED仿制药替代品的风险收益的争议,TDM的使用将提供一种确保患者安全的方法,同时证明在人群研究中被证明具有生物等效性的AED仿制药也具有个体生物等效性。个性化医学的目标是使用基因测试来靶向治疗,并确定那些不太可能对药物产生反应或可能对同一药物产生不利反应的个体。在所有AED中,只有苯妥英通过具有显着遗传多态性(CYP2C9,CYP2C19)的细胞色素P450同工酶进行重要的代谢。仍需要进行研究以鉴定遗传和生物标志物,以鉴定有发生严重特发性反应风险的患者。在遗传学在特发性和获得性癫痫中的作用的理解方面取得了重大进展。鉴定将与基因突变相关的功能改变与癫痫综合症联系起来的实验和临床证据,将有助于为未来的AED提供新的分子靶标。

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