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真菌对植物抗毒素α-茄碱的敏感性及其酶降解作用。

Fungal Sensitivity to and Enzymatic Degradation of the Phytoanticipin alpha-Tomatine.

出版信息

Phytopathology. 1998 Feb;88(2):137-43. doi: 10.1094/PHYTO.1998.88.2.137.

DOI:10.1094/PHYTO.1998.88.2.137
PMID:18944982
Abstract

ABSTRACT alpha-Tomatine, synthesized by Lycopersicon and some Solanum species, is toxic to a broad range of fungi, presumably because it binds to 3beta-hydroxy sterols in fungal membranes. Several fungal pathogens of tomato have previously been shown to be tolerant of this glycoalkaloid and to possess enzymes thought to be involved in its detoxification. In the current study, 23 fungal strains were examined for their ability to degrade alpha-tomatine and for their sensitivity to this compound and two breakdown products, beta(2)-tomatine and tomatidine. Both saprophytes and all five non-pathogens of tomato tested were sensitive, while all but two tomato pathogens (Stemphylium solani and Verticillium dahliae) were tolerant of alpha-to-matine (50% effective dose > 300 muM). Except for an isolate of Botrytis cinerea isolated from grape, no degradation products were detected when saprophytes and nonpathogens were grown in the presence of alpha-tomatine. All tomato pathogens except Phytophthora infestans and Pythium aphani-dermatum degraded alpha-tomatine. There was a strong correlation between tolerance to alpha-tomatine, the ability to degrade this compound, and pathogenicity on tomato. However, while beta(2)-tomatine and tomatidine were less toxic to most tomato pathogens, these breakdown products were inhibitory to some of the saprophytes and nonpathogens of tomato, suggesting that tomato pathogens may have multiple tolerance mechanisms to alpha-tomatine.

摘要

摘要 alpha-茄碱是由番茄和一些茄属植物合成的,对多种真菌具有毒性,可能是因为它与真菌膜中的 3β-羟基固醇结合。先前已经证明,番茄的几种真菌病原体对这种糖生物碱具有耐受性,并具有被认为参与其解毒作用的酶。在当前的研究中,检测了 23 种真菌菌株降解 alpha-茄碱的能力及其对该化合物和两种分解产物 beta(2)-茄碱和茄啶的敏感性。测试的所有腐生菌和 5 种非番茄病原体均敏感,而除 Stemphylium solani 和 Verticillium dahliae 两种番茄病原体外,所有番茄病原体(50%有效剂量>300μM)均耐受 alpha-茄碱。当腐生菌和非病原体在 alpha-茄碱存在的情况下生长时,除了从葡萄中分离出的 Botrytis cinerea 的一个分离物外,没有检测到降解产物。除 Phytophthora infestans 和 Pythium aphani-dermatum 外,所有番茄病原体都能降解 alpha-茄碱。对 alpha-茄碱的耐受性、降解这种化合物的能力以及对番茄的致病性之间存在很强的相关性。然而,虽然 beta(2)-茄碱和茄啶对大多数番茄病原体的毒性较小,但这些分解产物对一些番茄腐生菌和非病原体具有抑制作用,这表明番茄病原体可能具有多种耐受 alpha-茄碱的机制。

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