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Table_5_Physiology and transcriptome analysis of the response mechanism of Solidago canadensis to the nitrogen addition environment.xlsx

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figshare.com2023-06-21 更新2025-03-25 收录
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https://figshare.com/articles/dataset/Table_5_Physiology_and_transcriptome_analysis_of_the_response_mechanism_of_Solidago_canadensis_to_the_nitrogen_addition_environment_xlsx/22092425/1
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Solidago canadensis is an invasive plant that can adapt to variable environmental conditions. To explore the molecular mechanism of the response to nitrogen (N) addition conditions in S. canadensis, physiology and transcriptome analysis were performed with samples that cultured by natural and three N level conditions. Comparative analysis detected many differentially expressed genes (DEGs), including the function of plant growth and development, photosynthesis, antioxidant, sugar metabolism and secondary metabolism pathways. Most genes encoding proteins involved in plant growth, circadian rhythm and photosynthesis were upregulated. Furthermore, secondary metabolism-related genes were specifically expressed among the different groups; for example, most DEGs related to phenol and flavonoid synthesis were downregulated in the N-level environment. Most DEGs related to diterpenoid and monoterpenoid biosynthesis were upregulated. In addition, many physiological responses, such as antioxidant enzyme activities and chlorophyll and soluble sugar contents, were elevated by the N environment, which was consistent with the gene expression levels in each group. Collectively, our observations indicated that S. canadensis may be promoted by N deposition conditions with the alteration of plant growth, secondary metabolism and physiological accumulation.

加拿大一枝黄花是一种能够适应多变环境条件的入侵植物。为探究加拿大一枝黄花对氮(N)添加条件响应的分子机制,本研究对自然条件下及三种氮水平条件下培养的样品进行了生理学和转录组分析。比较分析发现众多差异表达基因(DEGs),涉及植物生长与发育、光合作用、抗氧化、糖代谢及次生代谢途径等功能。大部分编码参与植物生长、昼夜节律和光合作用的蛋白质基因表达上调。此外,次生代谢相关基因在不同组别中具有特异性表达;例如,与酚类和黄酮类合成相关的多数DEGs在氮水平环境中表达下调。与二萜和单萜生物合成相关的多数DEGs表达上调。此外,许多生理反应,如抗氧化酶活性、叶绿素和可溶性糖含量等,在氮环境中均有所提升,这与各组的基因表达水平相一致。综合观察表明,加拿大一枝黄花可能在氮沉积条件下促进植物生长、次生代谢及生理积累的改观。
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