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The AabHLH35 Transcription Factor Identified from Anthurium andraeanum is Involved in Cold and Drought Tolerance

机译:患有Anthurium andraeanum的AABHLH35转录因子参与了寒冷和耐旱性

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摘要

Anthurium andraeanum Lind. is a popular potted and cut-flower plant with an attractive spathe and foliage. It is native to tropical rainforest areas and is able to blossom throughout the year under suitable conditions. However, various abiotic stresses seriously restrict the ornamental value of A. andraeanum and increase the costs of cultivation. A dark green (dg) leaf color mutant of A. andraeanum ‘Sonate’, which accumulates high levels of anthocyanin, has shown increased vigor and tolerance to stresses during cultivation and is, thus, an ideal germplasm for studying stress tolerance in this species. Here, we show that the anthocyanin content in dg mutant plants at different stages of leaf development was higher than in wild-type (WT) plants, and the ability to tolerate under low-temperature (LT, 14 °C) stress was stronger in dg than in WT plants. RNA-Seq of cDNA libraries from young leaves of dg and WT identified AabHLH35 as a differentially expressed gene (DEG) that was significantly up-regulated in dg. Furthermore, heterologous expression of AabHLH35 improved tolerance to cold and drought stresses in Arabidopsis. These results have built an important molecular foundation for further study of stress tolerance in A. andraeanum.
机译:anthurium andraeanum lind。是一个受欢迎的盆栽和剪花植物,有吸引力的斯巴属和叶子。它是热带雨林的原产地,可以在适当的条件下全年开花。然而,各种非生物胁迫严重限制了A患者的观赏价值并提高了种植成本。 Andraeanum'Sonate'的暗绿色(DG)叶子颜色突变体积累了高水平的花青素,已经显示出培养过程中的耐受性和耐受胁迫的增加,因此是用于研究该物种中应激耐受性的理想种质。在这里,我们表明,在叶片发育的不同阶段的DG突变植物中的花青素含量高于野生型(WT)植物,并且在低温(LT,14℃)胁迫下耐受的能力更强DG比WT植物。从DG和WT的幼叶的CDNA文库的RNA-SEQ鉴定为AABHLH35,作为DG中显着上调的差异表达的基因(DEG)。此外,AABHLH35的异源表达改善了拟南芥在拟南芥中对冷和干旱胁迫的耐受性。这些结果已经为进一步研究了A和造成的胁迫性耐受性的重要分子基础。

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