Chatelin Jerome, Stathopoulou Maria G, Arguinano Alex-Ander A, Xie Ting, Visvikis-Siest Sophie
Service Endocrinologie, CHU Technopole Nancy-Brabois, Rue du Morvan, 54511 Vandoeuvre-les-Nancy. France.
UMR INSERM U1122 - Interactions Gene-Environnement en Physiopathologie Cardio-Vasculaire (IGE-PCV), Universite de Lorraine, Rue Lionnois, 54000 Nancy. France.
Curr Pharm Biotechnol. 2017;18(3):231-241. doi: 10.2174/1389201018666170123153626.
Even if cardiovascular disease (CVD) drugs are supported by high level proofs, the results of CVD treatment present great disparities: there are still patients dying with supposed optimal treatment, patients facing adverse events and CVD remains the primary cause of death in the world. Pharmacogenomics is the basis of personalisation of the treatment able to allow higher medication success rates. In this review, we will present detailed examples of CVD drugs to highlight the complexity of this challenging field and we will discuss novel concepts that should be considered for a fastest integration of pharmacogenomics in clinical practice of CVD. Areas Covered: The complexity of pharmacogenetics and pharmacogenomics of CVD drugs are presented though examples of medications such as statins, with a focus on their effectiveness and adverse effects. Expert Opinion: The application of personalised medicine in the CVD medical practice requires the study of human genome with regard to drugs pharmacokinetics, pharmacodynamics, interactions and tolerance profile. The existing state -of-the-art of CVD drugs gives hopes for a future revolution in the drug development that will maximise cardiovascular patients benefit while decreasing their risks for adverse effects. Article Highlights Box: • Coronary heart disease (CHD) remains the first cause of death worldwide. • Cardiovascular treatment has a significant percentage of insufficient efficacy, poor tolerance and compliance. • Predicting the response to therapy while diminishing the side effects is the basis of personalised medicine; pharmacogenomics is leading towards this direction. • The response to CVD therapy and side effects are in the heart of CVD pharmacogenomics and significant progress has been noted. • The application of pharmacogenomics in the CVD medical practice is facing many methodological, technical, ethical, behavioral and financial issues, while cost-effectiveness is the main prerequisite. • The consideration of gene × gene × environment interactions and the inclusion of "omics" data in pharmacogenomic studies of CVD drugs will facilitate the generation of reliable results and will promote tailored treatments and new strategies of drug research and development.
即使心血管疾病(CVD)药物有高水平证据支持,但CVD治疗结果仍存在巨大差异:仍有患者在接受所谓的最佳治疗时死亡,患者面临不良事件,且CVD仍是全球主要死因。药物基因组学是实现治疗个性化的基础,能够提高药物治疗成功率。在本综述中,我们将展示CVD药物的详细实例,以突出这一具有挑战性领域的复杂性,并讨论在CVD临床实践中更快整合药物基因组学应考虑的新概念。涵盖领域:通过他汀类药物等药物实例介绍了CVD药物的药物遗传学和药物基因组学的复杂性,重点关注其有效性和不良反应。专家观点:在CVD医疗实践中应用个性化医疗需要研究人类基因组在药物药代动力学、药效学、相互作用和耐受性方面的情况。CVD药物的现有技术水平为药物研发的未来革命带来了希望,这场革命将使心血管疾病患者的获益最大化,同时降低其发生不良反应的风险。文章要点框:• 冠心病(CHD)仍是全球首要死因。• 心血管治疗中有很大比例疗效不足、耐受性差且依从性不佳。• 在减少副作用的同时预测治疗反应是个性化医疗的基础;药物基因组学正朝着这个方向发展。• 对CVD治疗的反应和副作用是CVD药物基因组学的核心,且已取得显著进展。• 在CVD医疗实践中应用药物基因组学面临许多方法学、技术、伦理、行为和财务问题,而成本效益是主要前提。• 考虑基因×基因×环境相互作用,并将“组学”数据纳入CVD药物的药物基因组学研究,将有助于产生可靠结果,并促进量身定制的治疗以及药物研发的新策略。