Belmont Philippe, Bosson Johann, Godet Thomas, Tiano Martin
Université Claude Bernard - Lyon I, UMR CNRS 5181, Méthodologie de Synthèse et Molécules Bioactives, Laboratoire de Synthèse et Méthodologie Organiques, Bâtiment CPE, Villeurbanne cedex, France.
Anticancer Agents Med Chem. 2007 Mar;7(2):139-69. doi: 10.2174/187152007780058669.
Acridine derivatives are interesting chemotherapeutic agents that were first used as antibacterial and antiparasite agents. In this review we wish to concentrate our attention on the anticancer properties of acridines used in clinics since the 1970's. Based on recent results, an outlook on antitumour acridine chemotherapy will be proposed. The biological activity of acridines is mainly attributed to the planarity of these aromatic structures, which can intercalate within the double-stranded DNA structure, thus interfering with the cellular machinery. Recent understanding of the mode of action of acridines leads to continuous and exciting research in this heterocyclic family. Indeed, biological targets such as topoisomerases I and II, telomerase/telomere and protein kinases emerge and allow the design of novel acridine-based patterns. This review further pinpoints the latest progress in the development of anticancer agents based on naturally occurring and synthetic acridines (e.g. acridones, pyridoacridines); for this matter in vitro/in vivo studies and clinical trial results will be discussed. The DNA-affinic property of acridine is also useful to vectorise drugs into cell nuclei and some applications in hypoxia-selective treatment, platinum or N-mustard derived conjugates will be reported. Some other properties including inhibition of multidrug resistance or potential impact on Alzheimer disease will be treated. It is noteworthy that the position and the nature of the substituent on the heterocyclic core are determinants for the biological property and selectivity observed. So, we wish also to disclose a summary of recent synthetic methodologies developed for acridine synthesis.
吖啶衍生物是一类有趣的化疗药物,最初用作抗菌和抗寄生虫药物。在本综述中,我们希望将注意力集中在自20世纪70年代以来临床上使用的吖啶的抗癌特性上。基于最近的研究结果,将对吖啶类抗肿瘤化疗进行展望。吖啶的生物活性主要归因于这些芳香结构的平面性,它们可以插入双链DNA结构中,从而干扰细胞机制。对吖啶作用方式的最新认识导致了对这个杂环家族的持续且令人兴奋的研究。事实上,诸如拓扑异构酶I和II、端粒酶/端粒和蛋白激酶等生物靶点不断出现,这使得设计新型基于吖啶的药物成为可能。本综述进一步指出了基于天然和合成吖啶(如吖啶酮、吡啶吖啶)的抗癌药物开发的最新进展;为此将讨论体外/体内研究和临床试验结果。吖啶与DNA的亲和特性也有助于将药物导入细胞核,还将报道其在缺氧选择性治疗、铂或氮芥衍生共轭物方面的一些应用。还将探讨其他一些特性,包括对多药耐药性的抑制或对阿尔茨海默病的潜在影响。值得注意的是,杂环核心上取代基的位置和性质是观察到的生物学性质和选择性的决定因素。因此,我们还希望披露最近开发的吖啶合成方法的总结。