MdMYB54 reduces disease severity caused by Fusarium solani in apple by modulating cell wall cellulose and pectate lyase-dependent defense

IF 6.2 1区 生物学 Q1 PLANT SCIENCES The Plant Journal Pub Date : 2024-12-11 DOI:10.1111/tpj.17206
Qianwei Liu, Xiao Chen, Sujuan Li, Qian Wang, Yusong Liu, Zhijun Zhang, Chao Yang, Shuo Xu, Ke Mao, Fengwang Ma, Chao Li
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Abstract

The plant cell wall is the first barrier against pathogen invasion. Fusarium solani is the primary pathogen responsible for apple replant disease. In this study, we identified an MYB protein, MdMYB54, which interacts with the positive regulator of F. solani resistance, MdERF114, and confers apple-increased tolerance against F. solani. The cellulose synthetase (CESA) gene MdCesA6 and pectin lyase-like (PLL) genes MdPLL8 and MdPLL12 were screened as three potential downstream target genes of MdMYB54 using DAP-seq. The results of electrophoretic mobility shift and yeast one-hybrid assays showed that MdMYB54 directly binds to the promoters of MdCesA6, MdPLL8, and MdPLL12 in vivo and in vitro. Dual-luciferase and β-glucuronidase assays showed that MdMYB54 activates the expression of these genes. The cellulose content and pectin lyase activity of MdMYB54-overexpressed roots were significantly higher than those of wild-type plants under F. solani treatment but were the opposite in MdMYB54-RNAi roots. The deposition of cellulose enhanced the physical barrier of the plant cell wall, whereas the activation of pectin lyase promoted the formation of oligogalacturonides and the production of reactive oxygen species. Overexpression of MdCesA6, MdPLL8, and MdPLL12 in the root system enhanced the tolerance of apple to F. solani. The direct interaction of MdERF114 with MdMYB54 enhanced MdMYB54-mediated cell wall defense response. These results suggest that modifying these candidate genes may provide a strategy for improving the resistance of apple to F. solani.

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MdMYB54通过调节细胞壁纤维素和果胶裂解酶依赖性防御,降低苹果枯萎病的严重程度。
植物细胞壁是抵御病原菌侵袭的第一道屏障。枯萎病是苹果再植病的主要病原菌。在这项研究中,我们发现了一种MYB蛋白MdMYB54,它与番茄枯萎病抗性的正调节因子MdERF114相互作用,使苹果对番茄枯萎病的耐受性增强。利用DAP-seq技术筛选出纤维素合成酶(CESA)基因MdCesA6和果胶裂解酶样(PLL)基因MdPLL8和MdPLL12作为MdMYB54的3个潜在下游靶基因。电泳迁移率转移和酵母单杂交实验结果表明,MdMYB54在体内和体外均直接结合MdCesA6、MdPLL8和MdPLL12的启动子。双荧光素酶和β-葡糖苷酸酶检测表明,MdMYB54激活了这些基因的表达。mdmyb54过表达根的纤维素含量和果胶裂解酶活性显著高于野生型植株,而MdMYB54-RNAi处理根的纤维素含量和果胶裂解酶活性显著高于野生型植株。纤维素的沉积增强了植物细胞壁的物理屏障,而果胶裂解酶的激活促进了低聚半乳糖醛酸酯的形成和活性氧的产生。根系中MdCesA6、MdPLL8和MdPLL12的过表达增强了苹果对茄蚜的耐受性。MdERF114与MdMYB54的直接相互作用增强了MdMYB54介导的细胞壁防御反应。这些结果表明,修改这些候选基因可能为提高苹果对茄蚜的抗性提供了一种策略。
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来源期刊
The Plant Journal
The Plant Journal 生物-植物科学
CiteScore
13.10
自引率
4.20%
发文量
415
审稿时长
2.3 months
期刊介绍: Publishing the best original research papers in all key areas of modern plant biology from the world"s leading laboratories, The Plant Journal provides a dynamic forum for this ever growing international research community. Plant science research is now at the forefront of research in the biological sciences, with breakthroughs in our understanding of fundamental processes in plants matching those in other organisms. The impact of molecular genetics and the availability of model and crop species can be seen in all aspects of plant biology. For publication in The Plant Journal the research must provide a highly significant new contribution to our understanding of plants and be of general interest to the plant science community.
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