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两种分离株的 GAF 传感器、碳水化合物活性酶、 elicitins 和 RXLRs 的表达明显不同。

Expression of the GAF Sensor, Carbohydrate-Active Enzymes, Elicitins, and RXLRs Differs Markedly Between Two Isolates.

机构信息

Department of Environmental and Biological Sciences, University of Eastern Finland, FI-70211 Kuopio, Finland.

出版信息

Phytopathology. 2019 May;109(5):726-735. doi: 10.1094/PHYTO-04-18-0136-R. Epub 2019 Apr 5.

DOI:10.1094/PHYTO-04-18-0136-R
PMID:30412010
Abstract

The phytopathogen infects economically important herbaceous and woody plant species. isolates differ in host specificity; for example, strawberry crown rot is often caused by a specialized pathotype. Here we compared the transcriptomes of two isolates that differ in their virulence to garden strawberry (Pc407: high virulence; Pc440: low virulence). De novo transcriptome assembly and clustering of contigs resulted in 19,372 gene clusters. Two days after inoculation of roots, 3,995 genes were differently expressed between the isolates. One of the genes that were highly expressed only in Pc407 encodes a GAF sensor protein potentially involved in membrane trafficking processes. Two days after inoculation, elicitins were highly expressed in Pc407 and lipid catabolism appeared to be more active than in Pc440. Of the carbohydrate-active enzymes, those that degrade pectin were often more highly expressed in Pc440, whereas members of glycosyl hydrolase family 1, potentially involved in the metabolism of glycosylated secondary metabolites, were more highly expressed in Pc407 at the time point studied. Differences were also observed among the RXLR effectors: Pc407 appears to rely on a smaller set of key RXLR effectors, whereas Pc440 expresses a greater number of RXLRs. This study is the first step toward improving understanding of the molecular basis of differences in the virulence of isolates. Identification of the key effectors is important, as it enables effector-assisted breeding strategies toward crown rot-resistant strawberry cultivars.

摘要

植物病原菌侵染具有重要经济价值的草本和木本植物。不同的 分离株在宿主特异性上存在差异;例如,草莓冠腐病通常由专门的病原菌引起。在这里,我们比较了两种在对花园草莓的毒力上存在差异的 分离株(Pc407:高毒力;Pc440:低毒力)的转录组。对重叠群进行从头转录组组装和聚类,得到了 19372 个基因簇。接种草莓根后两天,两种分离株之间有 3995 个基因的表达存在差异。在 Pc407 中高度表达的一个基因编码一种 GAF 传感器蛋白,可能参与膜运输过程。接种后两天,Pc407 中诱导素高度表达,脂质代谢似乎比 Pc440 更活跃。在碳水化合物活性酶中,降解果胶的酶在 Pc440 中通常表达更高,而糖苷水解酶家族 1 的成员可能参与糖基化次生代谢物的代谢,在研究的时间点在 Pc407 中表达更高。RXLR 效应子之间也存在差异:Pc407 似乎依赖于一组较小的关键 RXLR 效应子,而 Pc440 表达了更多的 RXLR。这项研究是深入了解 分离株毒力差异的分子基础的第一步。鉴定关键效应子很重要,因为它使人们能够利用效应子辅助的选育策略来培育抗草莓冠腐病的品种。

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