TY  - JA
AU  - Ce Deng
AU  - Leonard,A.
AU  - Cahill,J.
AU  - Meng Lv
AU  - Yurong Li
AU  - Thatcher,S.
AU  -  Xueying Li
AU  - Xiaodi Zhao
AU  - Wenjie Du
AU  - Zheng Li
AU  - Huimin Li
AU  - Llaca,V.
AU  - Fengler,K.
AU  - Marshall,L.
AU  - Harris,C.
AU  - Tabor,G.
AU  - Zhimin Li
AU  - Zhiqiang Tian
AU  - Qinghua Yang
AU  - Yanhui Chen
AU  - Jihua Tang
AU  - Xintao Wang
AU  - Junjie Hao
AU  - Jianbing Yan
AU  - Zhibing Lai
AU  - Xiaohong Fei
AU  - Weibin Song
AU  - Jinsheng Lai
AU  - Xuecai Zhang
AU  - Guoping Shu
AU  - Yibo Wang
AU  - Yuxiao Chang
AU  - Weiling Zhu
AU  - Wei Xiong
AU  - Sun,J.
AU  - Bailin Li
AU  - 
TI  - The RppC-AvrRppC NLR-effector interaction mediates the resistance to southern corn rust in maize
SN  - 16742052
PY  - 2022///
CY  - USA
PB  - Cell Press, 
KW  - Maize
KW  - AGROVOC
KW  - Rusts
KW  - Zea mays
KW  - Plant diseases
KW  - Yield losses
N1  - Peer review; Corrected Proof
N2  - Southern corn rust (SCR), caused by the fungal pathogen Puccinia polysora, is a major threat to maize production worldwide. Efficient breeding and deployment of resistant hybrids are key to achieving durable control of SCR. Here, we report the molecular cloning and characterization of RppC, which encodes an NLR-type immune receptor and is responsible for a major SCR resistance quantitative trait locus. Furthermore, we identified the corresponding avirulence effector, AvrRppC, which is secreted by P. polysora and triggers RppC-mediated resistance. Allelic variation of AvrRppC directly determines the effectiveness of RppC-mediated resistance, indicating that monitoring of AvrRppC variants in the field can guide the rational deployment of RppC-containing hybrids in maize production. Currently, RppC is the most frequently deployed SCR resistance gene in China, and a better understanding of its mode of action is critical for extending its durability
DO  - https://doi.org/10.1016/j.molp.2022.01.007
T2  - Molecular Plant
ER  -