Fundamental, electron transfer mechanism by pyrylium-type ions for the anticancer drugs 5,6-dimethylxanthenone-4-acetic acid (DMXAA) and flavone-8-acetic acid (FAA).

Peter Kovacic
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引用次数: 10

Abstract

Pyrylium-type salts derived from DMXAA and FAA are proposed to play an important mechanistic role in anticancer action. Electron transfer (ET) processes apparently initiate cell signaling cascades that lead to the observed effects, such as, antivascular influences, cytokine induction, and apoptosis. Possible participation of nitric oxide and serotonin is discussed. Structure-activity relationships involving DMXAA, FAA, acridines, and quinolines support the hypothetical framework, as well as electrochemistry and photochemistry. Similarity is pointed out to the action of plant hormones, e.g. ethylene. Involvement of ET pathways places the cationic salts within the general mechanistic framework for other anticancer agents. Other drug activities of xanthenones are in accord with the ET approach. Insight into fundamental mechanistic aspects should aid in development of improved drugs in this class through rational design.

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吡啶类离子对抗癌药物5,6-二甲基黄酮-4-乙酸(DMXAA)和黄酮-8-乙酸(FAA)的基本电子转移机制。
由DMXAA和FAA衍生的pyrytype盐类被认为在抗癌作用中起重要的机制作用。电子转移(ET)过程明显启动细胞信号级联反应,导致观察到的效应,如抗血管影响、细胞因子诱导和细胞凋亡。讨论了一氧化氮和血清素的可能参与。涉及DMXAA、FAA、吖啶和喹啉的构效关系支持假设的框架,以及电化学和光化学。与植物激素(如乙烯)的作用相似。ET途径的参与将阳离子盐置于其他抗癌药物的一般机制框架内。杂蒽酮的其他药物活性与ET方法一致。对基本机制方面的洞察应该有助于通过合理的设计来改进这类药物的开发。
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