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Identification of genes differentially expressed in the roots of rubber tree (Hevea brasiliensis Muell. Arg.) in response to phosphorus deficiency

机译:鉴定响应磷缺乏而在橡胶树(巴西橡胶树)根部差异表达的基因

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Phosphorus (P) is an essential macronutrient for plant growth and development. P deficiency could affect rubber tree productivity seriously, and understanding the mechanism responses of the rubber tree under the P deficiency will be helpful to improving rubber tree productivity. The molecular mechanism by which the rubber trees respond to a P-deficiency is a complex network involving many processes. To identify the genes differentially expressed in that response, we constructed subtractive suppression hybridization libraries for roots of plants growing under deficient or sufficient conditions. We identified 94 up-regulated genes from the forward library and 45 down-regulated from the reverse library. These differentially expressed genes were categorized into eight groups representing functions in metabolism, transcription, signal transduction, protein synthesis, transport, stress responses, photosynthesis, and development. We also performed quantitative real-time PCR to investigate the expression profiles of eight randomly selected clones. Our results provide useful information for further study of the molecular mechanism for adaptations to a P-deficiency in this species. Further characterization and functional analysis of these differentially expressed genes will help us improve its phosphorus utilization and overall productivity.
机译:磷(P)是植物生长发育必不可少的大量营养素。缺磷会严重影响橡胶树的生产力,了解缺磷条件下橡胶树的机理响应将有助于提高橡胶树的生产力。橡胶树应对磷缺乏症的分子机制是一个复杂的网络,涉及许多过程。为了鉴定在该应答中差异表达的基因,我们针对在不足或充分条件下生长的植物的根构建了减性抑制杂交文库。我们从前向文库中鉴定出94个上调基因,从反向文库中鉴定出45个下调基因。这些差异表达的基因分为八类,分别代表新陈代谢,转录,信号转导,蛋白质合成,转运,应激反应,光合作用和发育中的功能。我们还进行了定量实时PCR,以研究八个随机选择的克隆的表达谱。我们的结果为进一步研究该物种适应P缺乏的分子机制提供了有用的信息。这些差异表达基因的进一步表征和功能分析将有助于我们提高其磷的利用率和整体生产力。

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