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高粱炭疽病菌对高粱侵染的超微结构。

Ultrastructure of the Infection of Sorghum bicolor by Colletotrichum sublineolum.

出版信息

Phytopathology. 2001 Feb;91(2):149-58. doi: 10.1094/PHYTO.2001.91.2.149.

DOI:10.1094/PHYTO.2001.91.2.149
PMID:18944388
Abstract

ABSTRACT Ultrastructural studies of the infection of susceptible and resistant cultivars of Sorghum bicolor by Colletotrichum sublineolum were conducted. Initial penetration events were the same on both susceptible and resistant cultivars. Germ tubes originating from germinated conidia formed globose, melanized appressoria, that penetrated host epidermal cells directly. Appressoria did not produce appressorial cones, but each penetration pore was surrounded by an annular wall thickening. Inward deformation of the cuticle and localized changes in staining properties of the host cell wall around the infection peg suggests that penetration involves both mechanical force and enzymic dissolution. In compatible interactions, penetration was followed by formation of biotrophic globular infection vesicles in epidermal cells. Filamentous primary hyphae developed from the vesicles and went on to colonize many other host cells as an intracellular mycelium. Host cells initially survived penetration. The host plasma membrane invaginated around infection vesicles and primary hyphae and was appressed tightly to the fungal cell wall, with no detectable matrix layer at the interface. Necrotrophic secondary hyphae appeared after 66 h and ramified through host tissue both intercellularly and intracellularly, forming hypostromatic acervuli by 114 h. Production of secondary hyphae was accompanied by the appearance of electron-opaque material within infected cells. This was thought to represent the host phytoalexin response. In incompatible interactions, infection vesicles and primary hyphae were formed in epidermal cells by 42 h. However, they were encrusted with electron-opaque material and appeared dead. These observations are discussed in relation to the infection processes of other Colletotrichum spp. and the host phytoalexin response.

摘要

摘要 对易感和抗性高粱品种被尖孢炭疽菌感染的超微结构进行了研究。在易感和抗性品种上,初始穿透事件相同。从萌发的分生孢子形成的芽管形成球形、黑化的附着胞,直接穿透宿主表皮细胞。附着胞不产生附着胞锥,但每个穿透孔周围都有一个环状壁增厚。角质层的向内变形和感染钉周围宿主细胞壁染色性质的局部变化表明穿透涉及机械力和酶溶解。在亲和相互作用中,穿透后在表皮细胞中形成了活营养的球形侵染泡。丝状初生菌丝从泡囊中发育,并作为细胞内菌丝继续侵染许多其他宿主细胞。宿主细胞在穿透时最初存活。宿主质膜围绕侵染泡和初生菌丝内陷,并紧紧地贴附在真菌细胞壁上,在界面处没有检测到可检测的基质层。坏死次生菌丝在 66 小时后出现,并在宿主组织中通过细胞间和细胞内分枝,在 114 小时形成基质下的分生孢子堆。次生菌丝的产生伴随着感染细胞内电子不透明物质的出现。这被认为代表了寄主植物的防御素反应。在不亲和相互作用中,感染泡和初生菌丝在表皮细胞中形成,42 小时后。然而,它们被电子不透明物质包裹,看起来已经死亡。这些观察结果与其他炭疽菌属的感染过程和寄主植物防御素反应有关。

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