Magnaporthe oryzae effector MoSPAB1 directly activates rice Bsr-d1 expression to facilitate pathogenesis

Author:

Zhu ZiweiORCID,Xiong JunORCID,Shi HaoORCID,Liu Yuchen,Yin Junjie,He KaiweiORCID,Zhou TianyuORCID,Xu LitingORCID,Zhu XiaoboORCID,Lu XiangORCID,Tang Yongyan,Song Li,Hou Qingqing,Xiong QingORCID,Wang Long,Ye DaihuaORCID,Qi Tuo,Zou Lijuan,Li GuobangORCID,Sun Changhui,Wu Zhiyue,Li Peili,Liu Jiali,Bi Yu,Yang Yihua,Jiang Chunxian,Fan JingORCID,Gong Guoshu,He MinORCID,Wang Jing,Chen XueweiORCID,Li WeitaoORCID

Abstract

AbstractFungal pathogens typically use secreted effector proteins to suppress host immune activators to facilitate invasion. However, there is rarely evidence supporting the idea that fungal secretory proteins contribute to pathogenesis by transactivating host genes that suppress defense. We previously found that pathogen Magnaporthe oryzae induces rice Bsr-d1 to facilitate infection and hypothesized that a fungal effector mediates this induction. Here, we report that MoSPAB1 secreted by M. oryzae directly binds to the Bsr-d1 promoter to induce its expression, facilitating pathogenesis. Amino acids 103-123 of MoSPAB1 are required for its binding to the Bsr-d1 promoter. Both MoSPAB1 and rice MYBS1 compete for binding to the Bsr-d1 promoter to regulate Bsr-d1 expression. Furthermore, MoSPAB1 homologues are highly conserved among fungi. In particular, Colletotrichum fructicola CfSPAB1 and Colletotrichum sublineola CsSPAB1 activate kiwifruit AcBsr-d1 and sorghum SbBsr-d1 respectively, to facilitate pathogenesis. Taken together, our findings reveal a conserved module that may be widely utilized by fungi to enhance pathogenesis.

Funder

Fok Ying Tong Education Foundation

National Natural Science Foundation of China

Publisher

Springer Science and Business Media LLC

Subject

General Physics and Astronomy,General Biochemistry, Genetics and Molecular Biology,General Chemistry,Multidisciplinary

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