Plant pathogenic fungi hijack phosphate starvation signaling with conserved enzymatic effectors

Carl L McCombe, Alex Wegner, Chenie S. Zamora, Florencia Casanova, Shouvik Aditya, Julian R Greenwood, Louisa Wirtz, Samuel de Paula, Eleanor England, Sascha Shang, Daniel J Ericsson, Ely Oliveira-Garcia, Simon J Williams, Ulrich Schaffrath
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Abstract

Phosphate availability modulates plant immune function and regulates interactions with beneficial, phosphate-providing, microbes. Here, we describe the hijacking of plant phosphate sensing by a family of Nudix hydrolase effectors from pathogenic Magnaporthe oryzae and Colletotrichum fungi. Structural and enzymatic analyses of the Nudix effector family demonstrate that they selectively hydrolyze inositol pyrophosphates, a molecule used by plants to monitor phosphate status and regulate starvation responses. In M. oryzae , gene deletion and complementation experiments reveal that the enzymatic activity of a Nudix effector significantly contributes to pathogen virulence. Further, we show that this conserved effector protein family induces phosphate starvation signaling in plants. Our study elucidates a molecular mechanism, utilized by multiple phytopathogenic fungi, that manipulates the highly conserved plant phosphate sensing pathway to exacerbate disease.
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植物病原真菌利用保守的酶效应物劫持磷酸盐饥饿信号
磷酸盐可利用性调节植物免疫功能并调节与有益的、提供磷酸盐的微生物的相互作用。在这里,我们描述了来自致病性稻瘟病菌和炭疽菌的Nudix水解酶效应家族劫持植物的磷酸盐感知。Nudix效应家族的结构和酶分析表明,它们选择性地水解肌醇焦磷酸,肌醇焦磷酸是植物用来监测磷酸盐状态和调节饥饿反应的分子。在m.o ryzae中,基因缺失和互补实验表明,Nudix效应物的酶活性对病原体的毒力有显著影响。此外,我们发现这个保守的效应蛋白家族在植物中诱导磷酸盐饥饿信号。我们的研究阐明了多种植物致病真菌利用的一种分子机制,该机制操纵高度保守的植物磷酸盐敏感途径来加剧疾病。
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