Prodigiosin-like pigments.

N N Gerber
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引用次数: 147

Abstract

Prodigiosin, the bright red tripyrrole pigment from Serratia marcescens, has also been identified in Pseudomonas magnesiorubra, Vibrio psychroerythrus, and two Gram-negative rod-shaped mesophilic marine bacteria not members of the genus Serratia. Prodigiosin is sometimes bound to proteins; thus, extracts may require acid treatment before isolation of the pigment. Higher homologs of prodigiosin have been detected by mass spectroscopy. A mutant strain of S. marcescens produced nor-prodigiosin, in which the methoxy group of prodigiosin is replaced by a hydroxy group. Another mutant strain produced a blue tetrapyrrole pigment whose structure is a dimer of prodigiosin's rings A and B. Three novel biosynthetic analogs of prodigiosin have been obtained using a colorless mutant which does make rings A and B but not ring C and which can couple rings A and B with some added monopyrroles similar to ring C. The structures of three prodiginine (prodigiosin-like) pigments from streptomyces have been elucidated. All have the methoxytripyrrole aromatic nucleus of prodigiosin and all have an 11 carbon aliphatic side chain attached at carbon 2 of ring C. In two of the pigments the side chain is also linked to another carbon of ring C. The earlier literature about prodiginine pigments from actinomycetes has been interpreted and evaluated in light of the most recent findings. The structure elucidation of six prodiginine pigments from Actinomadurae (Nocardiae) has been completed. Only one, undecylprodiginine, is the same as from a streptomycete. For three of the six pigments, nine carbon side chains are observed and in four of them the side chain is attached to carbon 5 of ring A as well as carbon 2 of ring C so that a large ring is formed which includes the three pyrrole moieties. A section on identification summarized useful methods and presents information with which any known prodiginine pigment can be identified. The final step in the biosynthesis of prodigiosin was known to be the coupling of methoxybipyrrolecarboxaldehyde (rings A and B) with methylpentylpyrrole (ring C). Recent work using 13C-labeled precursors and Fourier transform 13C nuclear magnetic resonance has shown the pattern of incorporation for acetate, proline, glycine, serine alanine, and methionine into prodigiosin. Each pyrrole ring is constructed in a different way. Two of the streptomyces pigments have also been investigated; the pattern of incorporation is similar to that for prodigiosin. The biological activities of some prodiginine pigments are summarized. All show activity against several Gram-positive bacteria; some have anti-malarial activity. Prodigiosin has been tested clinically against coccidioidomycosis.

Prodigiosin-like颜料。
来自粘质沙雷氏菌的亮红色三吡咯色素,也在镁质假单胞菌、嗜冷弧菌和两种不属于沙雷氏菌属的革兰氏阴性杆状嗜温海洋细菌中被发现。Prodigiosin有时与蛋白质结合;因此,提取物可能需要在分离色素之前进行酸处理。用质谱法检测出了高同源物。粘质葡萄球菌的一种突变株产生了无芥子菌素,其中芥子菌素的甲氧基被羟基取代。另一种突变菌株产生了一种蓝色四吡咯色素,其结构是prodigiosin环a和环B的二聚体。利用一种无色突变菌株获得了三种新的生物合成的prodigiosin类似物,这种色素可以产生环a和B而不产生环C,并且可以将环a和B与一些类似环C的单吡咯偶联。它们都有一个氨氧三吡咯的芳香核,并且在c环的2号碳上都有一个11碳的脂肪族侧链。其中两个色素侧链还与c环的另一个碳相连。本文完成了放线菌(Nocardiae)中6种prodigine色素的结构解析。只有一种,十一酰子氨酸,与链霉菌相同。对于六种颜料中的三种,观察到九个碳侧链,其中四个侧链连接到环A的5号碳和环C的2号碳上,这样就形成了一个包含三个吡咯基团的大环。鉴定的一节总结了有用的方法,并提出了任何已知的浪子色素可以识别的信息。已知的生物合成的最后一步是甲氧基联吡罗甲醛(环A和B)与甲基戊基吡罗(环C)的偶联。最近的研究使用13C标记的前体和傅里叶变换13C核磁共振显示了醋酸盐、脯氨酸、甘氨酸、丝氨酸、丙氨酸和甲硫氨酸结合到prodigiiosin中的模式。每个吡咯环都有不同的构造方式。两种链霉菌色素也已被研究;合并的模式与prodigiosin相似。综述了几种子色素的生物活性。它们都对几种革兰氏阳性细菌有活性;有些具有抗疟疾活性。已经在临床上对球孢子菌病进行了测试。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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