Natural variation of GmFNSII-2 contributes to drought resistance by modulating enzyme activity in soybean

Huihui Gao, Pengcheng Wei, Yongzhe Gu, Pengbin Tang, Yifan Shen, Lei Yang, Linxin Dong, Haowei Zhen, Kuo Shu, Mayamiko Masangano, Bin Dong, Long Miao, Jiajia Li, Lijuan Qiu, Xiaobo Wang
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Abstract

As an essential crop that provides vegetable oil and protein, soybean ( max (L.) Merr.) is widely planted all over the world. However, the scarcity of water resources worldwide has seriously impacted on the quality and yield of soybean. To address this, exploring excellent genes for improving drought resistance in soybean is crucial. In this study, we identified natural variations of (flavone synthase II) significantly affect the drought resistance of soybeans. Through sequence analysis of in 632 cultivated and 44 wild soybeans nine haplotypes were identified. The full-length allele , but not the truncated allele possessing a nonsense nucleotide variation, increased enzyme activity. Further research found that , known to increase soybean drought resistance, bound to the promoter region of . positively regulated the expression of , increased flavone synthase abundance and improved the drought resistance. Furthermore, a single-base mutation in the promoter generated an additional drought response element (CCCCT), which had stronger interaction strength with and increased its transcriptional activity under drought conditions. The frequency of drought-resistant soybean varieties with Hap 1 (:) has increased, suggesting that this haplotype may be selected during soybean breeding. In summary, could be used for molecular breeding of drought-tolerant soybean
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GmFNSII-2 的自然变异通过调节大豆中酶的活性提高抗旱性
作为一种提供植物油和蛋白质的重要作物,大豆(max (L.) Merr.)在世界各地广泛种植。然而,全球水资源的匮乏严重影响了大豆的质量和产量。为解决这一问题,探索提高大豆抗旱性的优良基因至关重要。本研究发现,黄酮合成酶 II 的天然变异会显著影响大豆的抗旱性。通过对 632 株栽培大豆和 44 株野生大豆的序列分析,我们发现了九种单倍型。全长等位基因能提高酶的活性,而具有无义核苷酸变异的截短等位基因则不能。进一步研究发现,已知能提高大豆抗旱性的Ⅴ基因与Ⅴ基因的启动子区域结合,正向调节Ⅴ基因的表达,增加黄酮合成酶的丰度,提高抗旱性。此外,启动子中的一个单碱基突变产生了一个额外的干旱响应元件(CCCCT),该元件与Ⅴ具有更强的相互作用强度,并提高了Ⅴ在干旱条件下的转录活性。带有 Hap 1(:)的抗旱大豆品种出现的频率增加,表明该单倍型可能在大豆育种过程中被选育出来。总之,可用于耐旱大豆的分子育种
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