苹果根部Mdwrky33基因对黄霉侵染、非生物胁迫和化学处理的转录谱

Q4 Agricultural and Biological Sciences International Journal of Phytopathology Pub Date : 2020-01-07 DOI:10.33687/phytopath.008.03.2996
Yanmin Zhu, M. Saltzgiver
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引用次数: 1

摘要

植物对病原体感染的抗性反应涉及大量的转录重编程和细胞途径的广泛重定向,以调整植物从生长到防御。转录因子(Transcription factors, TFs)在基因表达的主要调控点上起作用,已知特定的TFs在植物防御激活中起着至关重要的作用。苹果根部受卵霉菌坏死性病原菌(一种诱发苹果再植病的病原菌复合体的主要成分)感染时的分子防御激活尚未得到详细研究。基于先前的转录组分析,苹果WRKY基因家族成员已被确定为调控苹果根系防御反应的主要候选基因。其中,苹果基因组中AtWRKY33的同源基因MdWRKY33在葡萄侵染过程中表现为高表达的WRKY,具有基因型特异性诱导模式。MdWRKY33的序列特征及其组织特异性表达,以及对非生物和药物处理的反应,为其在苹果根防御激活中的功能作用提供了证据。MdWRKY33在8个苹果砧木基因型中均出现了持续的上调。在不同的基因型中,抗性基因型在侵染早期较强的诱导模式表明其在苹果根系抗性中起重要作用,尽管植物对坏死性病原体的抗性本质上是多遗传的数量抗性。该基因的转基因操作正在进行中,以提供更明确的功能特性,有助于苹果根抵抗最后葡萄球菌感染
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Transcriptional Profiles of Mdwrky33 in Apple Root in Response to Infection by Pythium Ultimum, Abiotic Stresses and Chemical Treatments
Plant resistance responses to pathogen infection involve massive transcriptional reprograming and widespread redirection of cellular pathways to adjust the plant from growth to defense. Transcription factors (TFs) function at the major regulating points of gene expression, and specific TFs are known to play crucial roles in plant defense activation. Molecular defense activation in apple root from infection by oomycete necrotrophic pathogen Pythium ultimum, a primary component in a pathogen complex inciting apple replant disease, has not been investigated in detail. Base on previous transcriptome analyses, members of apple WRKY gene family have been identified as the primary candidates in regulating defense response in apple root. Among them, MdWRKY33, an orthologue of AtWRKY33 in apple genome, demonstrated as a highly-expressed WRKY with genotype-specific induction patterns during P. ultimum infection. The sequence features of MdWRKY33 and its tissue-specific expression, as well as its responses to abiotic and pharmacological treatments, added to the evidence for its functional roles in defense activation in apple root. In response to P. ultimum infection, MdWRKY33 was consistently upregulated in all eight tested apple rootstock genotypes at all timepoints. Between genotypes, the stronger induction patterns at the earlier stage of infection in resistant genotypes suggest its essential roles of contributing to apple root resistance, although plant resistance to necrotrophic pathogens is polygenetic quantitative resistance in nature. Transgenic manipulation of this gene is underway to provide more definitive functional identity in contributing to apple root resistance to P. ultimum infection
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来源期刊
International Journal of Phytopathology
International Journal of Phytopathology Agricultural and Biological Sciences-Agricultural and Biological Sciences (miscellaneous)
CiteScore
1.20
自引率
0.00%
发文量
11
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