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PROTEIN S-ACYL TRANSFERASE 13/16 modulate disease resistance by S-acylation of the nucleotide binding, leucine-rich repeat protein R5L1 in Arabidopsis
文献摘要:
Nucleotide binding, leucine-rich repeat (NB-LRR) proteins are critical for disease resistance in plants, while we do not know whether S-acylation of these proteins plays a role during bacterial infection. We identified 30 Arabidopsis mutants with mutations in NB-LRR encoding genes from the Nottingham Arabidopsis Stock Center and characterized their contribution to the plant immune response after inoculation with Pseudomonas syringae pv tomato DC3000 (Pst DC3000). Of the five mutants that were hyper-susceptible to the pathogen, three (R5L1, R5L2 and RPS5) proteins contain the con-served S-acylation site in the N-terminal coiled-coil (CC) domain. In wild-type (WT) Arabidopsis plants, R5L1 was transcriptionally activated upon pathogen infection, and R5L1 overexpression lines had enhanced resistance. Independent experi-ments indicated that R5L1 localized at the plasma membrane (PM) via S-acylation of its N-terminal CC domain, which was mediated by PROTEIN S-ACYL TRANSFERASE 13/16 (PAT13, PAT16). Mod-ification of the S-acylation site reduced its affinity for binding the PM, with a consequent significant reduction in bacterial resistance. PM localization of R5L1 was significantly reduced in pat13 and pat16 mutants, similar to what was found for WT plants treated with 2-bromopalmitate, an S-acylation-blocking agent. Transgenic plants expressing R5L1 in the pat13 pat16 double mutant showed no en-hanced disease resistance. Overexpression of R5L1 in WT Arabidopsis resulted in substantial accumulation of reactive oxygen species after in-oculation with Pst DC3000;this effect was not ob-served with a mutant R5L1 carrying a mutated S-acylation site. Our data suggest that PAT13- and PAT16-mediated S-acylation of R5L1 is crucial for its membrane localization to activate the plant de-fense response.
文献关键词:
作者姓名:
Jin Gao;Gai Huang;Xin Chen;Yu-Xian Zhu
作者机构:
State Key Laboratory of Protein and Plant Gene Research,College of Life Sciences,Peking University,Beijing 100871,China;Institute for Advanced Studies,Wuhan University,Wuhan 430072,China
引用格式:
[1]Jin Gao;Gai Huang;Xin Chen;Yu-Xian Zhu-.PROTEIN S-ACYL TRANSFERASE 13/16 modulate disease resistance by S-acylation of the nucleotide binding, leucine-rich repeat protein R5L1 in Arabidopsis)[J].植物学报(英文版),2022(09):1789-1802
A类:
ACYL,TRANSFERASE,R5L1,R5L2,RPS5,PAT13,PAT16,pat13,pat16,bromopalmitate,oculation
B类:
PROTEIN,modulate,disease,resistance,by,acylation,nucleotide,binding,leucine,rich,repeat,Arabidopsis,Nucleotide,NB,LRR,proteins,are,critical,plants,while,not,know,whether,these,plays,role,during,bacterial,infection,We,identified,mutants,mutations,encoding,genes,from,Nottingham,Stock,Center,characterized,their,contribution,immune,response,after,inoculation,Pseudomonas,syringae,pv,tomato,DC3000,Pst,Of,five,that,were,hyper,susceptible,pathogen,three,contain,served,site,terminal,coiled,CC,domain,wild,type,WT,was,transcriptionally,activated,upon,overexpression,lines,had,enhanced,Independent,experi,ments,indicated,localized,plasma,membrane,PM,via,its,which,mediated,Mod,ification,reduced,affinity,consequent,reduction,localization,significantly,similar,what,found,treated,blocking,agent,Transgenic,expressing,double,showed,Overexpression,resulted,substantial,accumulation,reactive,oxygen,species,this,effect,ob,carrying,mutated,Our,data,suggest,crucial,fense
AB值:
0.443491
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