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abaA基因控制构巢曲霉中瓶梗的分化。

abaA controls phialide differentiation in Aspergillus nidulans.

作者信息

Sewall T C, Mims C W, Timberlake W E

机构信息

Department of Plant Pathology, University of Georgia, Athens 30602.

出版信息

Plant Cell. 1990 Aug;2(8):731-9. doi: 10.1105/tpc.2.8.731.

DOI:10.1105/tpc.2.8.731
PMID:2152124
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC159926/
Abstract

Aspergillus nidulans is an ascomycetous fungus that reproduces asexually by forming multicellular conidiophores and uninucleate spores called conidia. Loss of function mutations in the abacus A (abaA) regulatory locus result in formation of aberrant conidiophores that fail to produce conidia. Wild-type conidiophores form two tiers of sterigmata. The first tier, metulae, divide to produce the second tier, phialides. Phialides are sporogenous cells that produce conidia through a specialized apical budding process. We have examined conidiophore development in an abaA- strain at the ultrastructural level. The results showed that in the mutant metulae produce supernumerary tiers of cells with metula-like, rather than phialide-like, properties. Temperature shift experiments with an abaA14ts strain demonstrated that abaA+ function induced phialide formation by the aberrant abacus cells and was continuously required for maintenance of phialide function. In the absence of abaA+ activity, metulae simply proliferated and later developmental steps never occurred. We conclude that abaA+ directs the differentiation of phialides and is continuously required for maintenance of their function.

摘要

构巢曲霉是一种子囊菌,通过形成多细胞分生孢子梗和称为分生孢子的单核孢子进行无性繁殖。算盘A(abaA)调控位点的功能缺失突变会导致异常分生孢子梗的形成,这些分生孢子梗无法产生分生孢子。野生型分生孢子梗形成两层小梗。第一层,即帚状枝,分裂产生第二层,即瓶梗。瓶梗是产孢细胞,通过特殊的顶端出芽过程产生分生孢子。我们在超微结构水平上研究了abaA-菌株中的分生孢子梗发育。结果表明,在突变体中,帚状枝产生具有类似帚状枝而非瓶梗特性的额外细胞层。对abaA14ts菌株进行的温度转换实验表明,abaA+功能诱导异常算盘细胞形成瓶梗,并且维持瓶梗功能持续需要abaA+。在没有abaA+活性的情况下,帚状枝只是增殖,随后的发育步骤从未发生。我们得出结论,abaA+指导瓶梗的分化,并且维持其功能持续需要abaA+。