在酸樱桃休眠前起作用的遗传因素影响次年春天的开花时间

Charity Z Goeckeritz, Chloe Grabb, Rebecca Grumet, Amy F Iezzoni, Courtney A Hollender
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引用次数: 0

摘要

开花时间是果树果实生产的核心,对于李属植物来说,开花前的花发育跨越了四个季节。了解整个过程对于制定策略来控制开花时间以防止气候变化造成的作物损失至关重要。本文以4号染色体上一个主要开花时间QTL分离群体为研究对象,对早、晚开花酸樱桃(Prunus cerasus)从萌发到开花的花发育进行了详细的研究。利用一种新的分期系统,我们发现早开花树木的花蕾持续比晚开花的兄弟姐妹的花蕾更早。gDNA覆盖分析显示,该QTL k的晚花单倍型位于一个源自晚花果树祖先的亚基因组上。转录组分析发现,该QTL中的大量基因在早花和晚花树木从植物到花的转变过程中存在差异表达。由此,我们确定了晚花表型的候选基因,包括多个与生殖分生系统(REM) B3结构域蛋白同源的转录因子。此外,我们确定酸樱桃中的k基础可能与甜樱桃中的候选基因分开,这表明开花时间的几个主要调节因子位于李的4号染色体上。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Genetic factors acting prior to dormancy in sour cherry influence bloom time the following spring
Bloom time is central to tree fruit production, and for Prunus species floral development leading up to bloom spans four seasons. Understanding this entire process is crucial for developing strategies to manipulate bloom time to prevent crop loss due to climate change. Here, we present a detailed examination of flower development from initiation until bloom for early- and late-blooming sour cherries ( Prunus cerasus ) from a population segregating for a major bloom time QTL on chromosome 4. Using a new staging system, we identified floral buds from early-blooming trees were persistently more advanced than those from late-blooming siblings. A gDNA coverage analysis revealed the late-blooming haplotype of this QTL, k, is located on a subgenome originating from the late-blooming P. fruticosa progenitor. Transcriptome analyses identified a large number of genes within this QTL as differentially expressed between early- and late-blooming trees during the vegetative-to-floral transition. From these, we identified candidate genes for the late bloom phenotype, including multiple transcription factors homologous to REproductive Meristem (REM) B3 domain-containing proteins. Additionally, we determined the basis of k in sour cherry is likely separate from candidate genes found in sweet cherry–suggesting several major regulators of bloom time are located on Prunus chromosome 4.
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