全面分析 LysM 蛋白家族以及调控 Setosphaeria turcica 植物免疫的关键 LysM 效应子 StLysM1 的功能特征1

IF 4.6 1区 农林科学 Q1 AGRICULTURE, MULTIDISCIPLINARY Journal of Integrative Agriculture Pub Date : 2024-06-27 DOI:10.1016/j.jia.2024.06.006
Xiaodong Gong, Dan Han, Lu Zhang, Guibo Yin, Junfang Yang, Hui Jia, Zhiyan Cao, Jingao Dong, Yuwei Liu, Shouqin Gu
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引用次数: 0

摘要

LysM 蛋白含有溶菌素结构域(LysM),能与几丁质结合,存在于包括真菌在内的各种生物体中。在植物病原真菌中,某些 LysM 蛋白可作为抑制宿主免疫的效应物,从而增强真菌的毒力。然而,我们对 LysM 蛋白家族的了解还很有限。本研究确定了 8 个基因,并将其命名为 StLysM1、StLysM2、StLysM5、StLysM6 和 StLysM7。 序列特征分析表明,5 个蛋白(StLysM1、StLysM2、StLysM5、StLysM6 和 StLysM7)是潜在的效应蛋白。系统发育分析表明,StLysMs 可分为真菌/细菌亚类和真菌特异亚类。结构域分析表明,五种 StLysM 效应蛋白只含有 LysM 结构域,而其他三种 StLysM 蛋白则含有额外的功能结构域。序列保守性分析表明,真菌特异性 LysM 结构域序列共享 GDxTC 和 WNP 主题以及三个高度保守的半胱氨酸残基。相反,来自细菌/真菌分支的 LysM 结构域序列的保守位点很少。此外,表达谱分析显示,该基因在感染玉米时会显著上调。酵母分泌实验和瞬时表达实验表明,StLysM1 是一种分泌蛋白,可抑制 BAX/INF1 诱导的.NET 细胞程序性死亡。进一步的功能分析表明,StLysM1不能与自身相互作用,但可以与几丁质结合。LySM蛋白的瞬时表达抑制了几丁质触发的植物免疫反应,增加了......对植物病原真菌的易感性。这项研究揭示了 LySM 蛋白家族由八个成员组成,突出了 StLysM1 作为调控植物免疫的重要效应物的重要性。研究结果为深入了解 StLysMs 奠定了基础,有助于理解 StLysM 蛋白在......的致病过程中的作用。
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Comprehensive analysis of the LysM protein family and functional characterization of the key LysM effector StLysM1, which modulates plant immunity in Setosphaeria turcica1
LysM proteins contain the lysin domain (LysM), bind chitin and are found in various organisms including fungi. In phytopathogenic fungi, certain LysM proteins act as effectors to inhibit host immunity, thus increasing fungal virulence. However, our understanding of the LysM protein family in is limited. In this study, eight genes are identified and designated as to . The analysis of sequence features indicates that five proteins (StLysM1, StLysM2, StLysM5, StLysM6, and StLysM7) are potential effectors. Phylogenetic analysis suggests that the StLysMs are divided into fungal/bacterial and fungus-specific subclasses. Domain architecture analysis reveals that the five StLysM effectors exclusively harbor the LysM domain, whereas the other three StLysM proteins contain additional functional domains. Sequence conservation analysis shows that the fungal-specific LysM domain sequences share the GDxTC and WNP motifs as well as three highly conserved cysteine residues. Conversely, the LysM domain sequences from the bacterial/fungal branch have few conserved sites. Moreover, expression profiling analysis shows that the gene is significantly upregulated during the infection of maize. Yeast secretion assays and transient expression experiments demonstrate that StLysM1 is a secreted protein that can suppress BAX/INF1-induced programmed cell death in . Further functional analysis suggests that StLysM1 cannot interact with itself but it can bind chitin. The transient expression of inhibits the chitin-triggered plant immune response, increasing susceptibility to the phytopathogenic fungus in . This study reveals that the LySM protein family consists of eight members, highlighting the significance of StLysM1 as a vital effector in regulating plant immunity. The results provide insight into StLysMs and establish a foundation for understanding the roles of StLysM proteins in the pathogenic process of
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来源期刊
Journal of Integrative Agriculture
Journal of Integrative Agriculture AGRICULTURE, MULTIDISCIPLINARY-
CiteScore
7.90
自引率
4.20%
发文量
4817
审稿时长
3-6 weeks
期刊介绍: Journal of Integrative Agriculture publishes manuscripts in the categories of Commentary, Review, Research Article, Letter and Short Communication, focusing on the core subjects: Crop Genetics & Breeding, Germplasm Resources, Physiology, Biochemistry, Cultivation, Tillage, Plant Protection, Animal Science, Veterinary Science, Soil and Fertilization, Irrigation, Plant Nutrition, Agro-Environment & Ecology, Bio-material and Bio-energy, Food Science, Agricultural Economics and Management, Agricultural Information Science.
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