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饮食类生物类黄酮以不同的方式抑制大肠杆菌的 ATP 合成酶。

Dietary bioflavonoids inhibit Escherichia coli ATP synthase in a differential manner.

机构信息

Department of Biological Sciences, Box 70703, East Tennessee State University, Johnson City, TN 37614, USA.

出版信息

Int J Biol Macromol. 2010 Jun;46(5):478-86. doi: 10.1016/j.ijbiomac.2010.03.009. Epub 2010 Mar 25.

Abstract

The aim of this study was to determine if the dietary benefits of bioflavonoids are linked to the inhibition of ATP synthase. We studied the inhibitory effect of 17 bioflavonoid compounds on purified F1 or membrane bound F1Fo E. coli ATP synthase. We found that the extent of inhibition by bioflavonoid compounds was variable. Morin, silymarin, baicalein, silibinin, rimantadin, amantidin, or, epicatechin resulted in complete inhibition. The most potent inhibitors on molar scale were morin (IC50 approximately 0.07 mM)>silymarin (IC50 approximately 0.11 mM)>baicalein (IC50 approximately 0.29 mM)>silibinin (IC50 approximately 0.34 mM)>rimantadin (IC50 approximately 2.0 mM)>amantidin (IC50 approximately 2.5 mM)>epicatechin (IC50 approximately 4.0 mM). Inhibition by hesperidin, chrysin, kaempferol, diosmin, apigenin, genistein, or rutin was partial in the range of 40-60% and inhibition by galangin, daidzein, or luteolin was insignificant. The main skeleton, size, shape, geometry, and position of functional groups on inhibitors played important role in the effective inhibition of ATP synthase. In all cases inhibition was found fully reversible and identical in both F1Fo membrane preparations and isolated purified F1. ATPase and growth assays suggested that the bioflavonoid compounds used in this study inhibited F1-ATPase as well as ATP synthesis nearly equally, which signifies a link between the beneficial effects of dietary bioflavonoids and their inhibitory action on ATP synthase.

摘要

本研究旨在确定生物类黄酮的饮食益处是否与抑制 ATP 合酶有关。我们研究了 17 种生物类黄酮化合物对纯化的 F1 或膜结合的 F1FoE. coli ATP 合酶的抑制作用。我们发现,生物类黄酮化合物的抑制程度是可变的。桑色素、水飞蓟素、白杨素、水飞蓟宾、金刚烷胺、金刚乙胺或表儿茶素导致完全抑制。在摩尔尺度上最有效的抑制剂是桑色素(IC50 约为 0.07mM)>水飞蓟素(IC50 约为 0.11mM)>白杨素(IC50 约为 0.29mM)>水飞蓟宾(IC50 约为 0.34mM)>金刚烷胺(IC50 约为 2.0mM)>金刚乙胺(IC50 约为 2.5mM)>表儿茶素(IC50 约为 4.0mM)。橙皮苷、白杨黄素、山奈酚、地奥司明、芹菜素、染料木黄酮和芦丁的抑制作用在 40-60%之间为部分抑制,而高良姜素、大豆素和木樨草素的抑制作用则不明显。抑制剂的主要骨架、大小、形状、几何形状和功能基团的位置在有效抑制 ATP 合酶方面发挥了重要作用。在所有情况下,抑制作用都是完全可逆的,并且在 F1Fo 膜制剂和分离纯化的 F1 中都是相同的。ATPase 和生长测定表明,本研究中使用的生物类黄酮化合物抑制 F1-ATPase 以及 ATP 合成的作用几乎相同,这表明饮食中生物类黄酮的有益作用与其对 ATP 合酶的抑制作用之间存在联系。

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