编辑赤霉素受体基因可提高大豆产量和固氮性。

IF 9.3 1区 生物学 Q1 BIOCHEMISTRY & MOLECULAR BIOLOGY
Jiajun Tang, Shuhan Yang, Shuxuan Li, Xiuli Yue, Ting Jin, Xinyu Yang, Kai Zhang, Qianqian Yang, Tengfei Liu, Shancen Zhao, Junyi Gai, Yan Li
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引用次数: 0

摘要

大豆是油脂、蛋白质和饲料的重要来源。然而,它的产量远低于主要谷类作物。绿色革命部分通过高密度种植抗倒伏的半矮秆品种提高了谷类作物的产量,但需要更多的氮肥,对环境构成威胁。可以提高氮素利用效率的基因需要整合到半矮秆品种中,以避免过度使用肥料而又不损失矮秆。与谷类作物不同,大豆可以通过共生细菌吸收大气中的氮。在这里,我们使用集群规则间隔短重复序列(CRISPR)/CRISPR相关核酸酶9 (Cas9)编辑技术创建了新的GmGID1-2 (Glycine max GIBBERELLIN INSENSITIVE DWARF 1-2)等位基因,通过调控分支、脂质代谢和根瘤共生相关的重要途径和已知基因,改善了大豆的结构、产量、种子含油量和固氮性。敲除GmGID1-2基因后,大豆株高降低,茎粗和强度增加,单株分枝数、主干节数、荚果数和种子数增加,单株种子重增加,产量增加。敲除GmGID1-2的大豆品系在根瘤数、根瘤重、氮酶活性和氮素含量方面均有显著提高,这是与谷类作物半矮秆基因相比的新发现。在大豆种质中未发现GmGID1-2的功能缺失等位基因,编辑后的GmGID1-2s优于天然等位基因,表明本研究产生的GmGID1-2敲除突变体是未来育种中进一步提高大豆产量和籽油含量的宝贵遗传资源。本研究阐明了GID1基因敲除等位基因的多效性,对大豆植株结构、产量和固氮有积极影响,为可持续农业提供了一种有前景的策略。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Editing a gibberellin receptor gene improves yield and nitrogen fixation in soybean.

Soybean is an important source of oil, protein, and feed. However, its yield is far below that of major cereal crops. The green revolution increased the yield of cereal crops partially through high-density planting of lodging-resistant semi-dwarf varieties, but required more nitrogen fertilizers, posing an environmental threat. Genes that can improve nitrogen use efficiency need to be integrated into semi-dwarf varieties to avoid the overuse of fertilizers without the loss of dwarfism. Unlike cereal crops, soybean can assimilate atmospheric nitrogen through symbiotic bacteria. Here, we created new alleles of GmGID1-2 (Glycine max GIBBERELLIN INSENSITIVE DWARF 1-2) using clustered regularly interspaced short palindromic repeats (CRISPR)/CRISPR-associated nuclease 9 (Cas9) editing, which improved soybean architecture, yield, seed oil content, and nitrogen fixation, by regulation of important pathways and known genes related to branching, lipid metabolism, and nodule symbiosis. GmGID1-2 knockout reduced plant height, and increased stem diameter and strength, number of branches, nodes on the primary stem, pods, and seeds per plant, leading to an increase in seed weight per plant and yield in soybean. The nodule number, nodule weight, nitrogenase activity, and nitrogen content were also improved in GmGID1-2 knockout soybean lines, which is novel compared with the semi-dwarf genes in cereal crops. No loss-of-function allele for GmGID1-2 was identified in soybean germplasm and the edited GmGID1-2s are superior to the natural alleles, suggesting the GmGID1-2 knockout mutants generated in this study are valuable genetic resources to further improve soybean yield and seed oil content in future breeding programs. This study illustrates the pleiotropic functions of the GID1 knockout alleles with positive effects on plant architecture, yield, and nitrogen fixation in soybean, which provides a promising strategy toward sustainable agriculture.

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来源期刊
Journal of Integrative Plant Biology
Journal of Integrative Plant Biology 生物-生化与分子生物学
CiteScore
18.00
自引率
5.30%
发文量
220
审稿时长
3 months
期刊介绍: Journal of Integrative Plant Biology is a leading academic journal reporting on the latest discoveries in plant biology.Enjoy the latest news and developments in the field, understand new and improved methods and research tools, and explore basic biological questions through reproducible experimental design, using genetic, biochemical, cell and molecular biological methods, and statistical analyses.
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