利用整群分离分析绘制六倍体甘薯芽生长习性主要基因座图谱

IF 1.6 3区 农林科学 Q2 AGRONOMY
Keisuke Suematsu, Masaru Tanaka
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引用次数: 0

摘要

甘薯(Ipomoea batatas)与其野生祖先三叶甘薯(Ipomoea trifida)在茎的生长习性上存在差异。一般来说,甘薯的茎粗而不缠绕,而三叶甘薯的茎细长而缠绕。本研究的解剖观察表明,这种差异是由甘薯和三叶苕的茎的大小和细胞数量不同造成的。为了揭示茎表型差异的遗传基础,研究人员用甘薯(Konaishin)和三叶青(I. trifida)(K123-11)杂交产生了F1后代,并采用大体分离分析的G统计方法研究了作为茎生长习性代表性状的茎缠绕能力。结果,在参考基因组 Chr13 的 12.37-14.12 Mb 处成功检测到一个与芽生长相关的主要数量性状位点(qSgh)。利用为qSgh设计的基于PCR的SNP标记对F1个体进行基因分型,支持了大量分离分析的结果,并进一步表明qSgh对茎直径具有剂量效应。基于这些结果,我们认为 G 统计方法是对包括甘薯在内的多倍体物种进行整群分离分析的有效方法。此外,通过比较分析甘薯和三叶甘薯的基因组和转录组,我们发现了 qSgh 中的一些候选基因。其中至少有两个基因 Iba_chr13aCG7290 和 Iba_chr13cCG9960 可能参与甘薯茎的径向生长。本研究的结果为了解三裂叶甘薯芽表型的转变提供了新的视角。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Mapping of a major locus involved in shoot growth habit in hexaploid sweetpotato using bulked-segregant analysis

Mapping of a major locus involved in shoot growth habit in hexaploid sweetpotato using bulked-segregant analysis

The traits of shoot growth habit differ between sweetpotato (Ipomoea batatas) and its wild ancestor (Ipomoea trifida). In general, sweetpotatoes have thick stems without twining, while I. trifida have slender twining stems. Anatomical observation in this study showed that this difference is caused by the difference in the size and number of cells between the stems of sweetpotato and those of I. trifida. To reveal the genetic basis of the difference in shoot phenotype, F1 progeny were produced by crossing sweetpotato (Konaishin) and I. trifida (K123-11), and the G-statistic method of bulked-segregant analysis was used to investigate stem-twining ability as a representative trait of shoot growth habit. As a result, a major quantitative trait locus (qSgh) related to shoot growth was successfully detected at 12.37–14.12 Mb in Chr13 of the reference genome. Genotyping F1 individuals using a PCR-based SNP marker designed for qSgh supported the results of bulked-segregant analysis and further suggested that qSgh had a dosage effect on stem diameter. Based on these results, we propose that the G-statistic method is an effective approach for bulked-segregant analysis in polyploid species, including sweetpotato. Additionally, some candidate genes in qSgh were found by comparative analysis of the genome and transcriptome between sweetpotato and I. trifida. At least two of these, Iba_chr13aCG7290 and Iba_chr13cCG9960, are likely involved in radial growth of the stem in sweetpotato. The results of this study provide new insight into the transition of shoot phenotype from I. trifida to sweetpotato.

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来源期刊
Euphytica
Euphytica 农林科学-农艺学
CiteScore
3.80
自引率
5.30%
发文量
157
审稿时长
4.5 months
期刊介绍: Euphytica is an international journal on theoretical and applied aspects of plant breeding. It publishes critical reviews and papers on the results of original research related to plant breeding. The integration of modern and traditional plant breeding is a growing field of research using transgenic crop plants and/or marker assisted breeding in combination with traditional breeding tools. The content should cover the interests of researchers directly or indirectly involved in plant breeding, at universities, breeding institutes, seed industries, plant biotech companies and industries using plant raw materials, and promote stability, adaptability and sustainability in agriculture and agro-industries.
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