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阿司匹林不耐受的药物基因组学。

Pharmacogenomics in aspirin intolerance.

机构信息

Department of Pharmacology, Medical School University of Extremadura, Avda. de Elvas s/n, Badajoz, Spain.

出版信息

Curr Drug Metab. 2009 Nov;10(9):998-1008. doi: 10.2174/138920009790711814.

Abstract

Polymorphisms in drug-related enzymes and receptors are often strongly related to altered drug response and to the risk of developing drug intolerance. Aspirin, usually available as an over-the-counter drug, is one of the most used drugs worldwide and is a common cause of drug intolerance events. Aspirin undergoes polymorphic metabolism. Among the enzymes involved in aspirin biodisposition a major role is played by the enzymes UDP-glucuronosyltransferase UGT1A6, cytochrome P450 CYP2C9 and the xenobiotic/medium chain fatty acid:CoA ligase ACSM2, although other UGTs and ACSMs enzymes may significantly contribute to aspirin metabolism. UGT1A6, CYP2C9 and ACSM2 are polymorphic, as well as PTGS1 and PTGS2, the genes coding for the enzymes cyclo-oxygenases COX1 and COX2, respectively. The present review analyzes the importance of genetic variations in enzymes involved in the metabolism and in the effects of aspirin and common polymorphisms related to aspirin intolerance, and it raises hypotheses on genetic factors related to altered response to aspirin that require further investigation. Major polymorphisms related to aspirin biodisposition are rs2070959, rs1105879 and rs6759892 for the UGT1A6 gene, rs1133607 for the ACSM2 gene, and rs1799853, rs1057910, rs28371686, rs9332131 and rs28371685 for the CYP2C9 gene. Regarding aspirin effects, major PGTS1 targets are rs3842787 and rs5789 for European subjects, and rs3842789 and rs3842792 for African subjects. For the PTGS2 gene nonsynonymous SNPs are likely to be of low relevance because of the influence of transcriptional and posttranscriptional factors. Combined studies for the above mentioned polymorphisms and those corresponding to other genes related to aspirin intolerance will provide excellent tools to identify individuals with a high risk to develop intolerance to aspirin.

摘要

药物相关酶和受体的多态性通常与药物反应改变和药物不耐受风险密切相关。阿司匹林通常作为非处方药使用,是全球使用最广泛的药物之一,也是药物不耐受事件的常见原因。阿司匹林经历多态代谢。在涉及阿司匹林生物转化的酶中,UDP-葡萄糖醛酸转移酶 UGT1A6、细胞色素 P450 CYP2C9 和异源生物/中链脂肪酸:CoA 连接酶 ACSM2 起着主要作用,尽管其他 UGT 和 ACSM 酶可能对阿司匹林代谢有重要贡献。UGT1A6、CYP2C9 和 ACSM2 是多态的,PTGS1 和 PTGS2 也是多态的,分别编码酶环加氧酶 COX1 和 COX2。本综述分析了参与阿司匹林代谢和作用的酶的遗传变异以及与阿司匹林不耐受相关的常见多态性的重要性,并提出了与阿司匹林反应改变相关的遗传因素的假设,这些因素需要进一步研究。与阿司匹林生物分布相关的主要多态性是 UGT1A6 基因的 rs2070959、rs1105879 和 rs6759892,ACSM2 基因的 rs1133607,CYP2C9 基因的 rs1799853、rs1057910、rs28371686、rs9332131 和 rs28371685。关于阿司匹林的作用,PGTS1 的主要靶点是欧洲人群的 rs3842787 和 rs5789,以及非洲人群的 rs3842789 和 rs3842792。对于 PTGS2 基因,由于转录和转录后因素的影响,非同义 SNPs 可能相关性较低。对上述多态性以及与阿司匹林不耐受相关的其他基因的相应多态性进行联合研究,将为识别易发生阿司匹林不耐受的个体提供极好的工具。

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