Lingkui Zhang, Yanfeng Duan, Zewei Zhang, Lei Zhang, Shumin Chen, Chengcheng Cai, Shaoguang Duan, Kang Zhang, Guangcun Li, Feng Cheng
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OcBSA transforms the four-haplotype inheritance problem from the two heterozygous diploid parents of the F<sub>1</sub> population into the two-haplotype inheritance problem common in current genetic studies by removing the two haplotypes from the heterozygous parent that do not contribute to phenotype segregation in the F<sub>1</sub> population. Testing of OcBSA on 1800 simulated F<sub>1</sub> populations demonstrated its advantages over other currently available tools in terms of sensitivity and accuracy. In addition, the broad applicability of OcBSA was validated by QTL mapping using seven reported F<sub>1</sub> populations of apple, pear, peach, citrus, grape, tea, and rice. We also used OcBSA to map the QTL for flower color in a newly constructed F<sub>1</sub> population of potato generated in this study. 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引用次数: 0
摘要
为自交不亲和物种和世代时间较长的物种构建近交系具有挑战性,因此使用 F1 外交/分离群体是此类物种遗传研究的主要策略。然而,目前缺乏利用 F1 群体快速绘制 QTL 图谱的专用算法/工具。为此,我们设计并开发了一种名为 OcBSA 的算法/工具,专门用于 F1 群体的 QTL 图谱绘制。OcBSA 将 F1 群体两个杂合二倍体亲本的四个单倍型遗传问题转化为当前遗传研究中常见的两个单倍型遗传问题,方法是去除杂合亲本中对 F1 群体表型分离无贡献的两个单倍型。对 1,800 个模拟 F1 群体进行的 OcBSA 测试表明,它在灵敏度和准确性方面都优于其他现有工具。此外,通过使用苹果、梨、桃、柑橘、葡萄、茶叶和水稻的七个已报道 F1 群体进行 QTL 绘图,验证了 OcBSA 的广泛适用性。我们还利用 OcBSA 在为本研究新建的马铃薯 F1 群体中绘制了花色 QTL 图谱。OcBSA 的作图结果得到了 InDel 标记的验证,并且与之前报道的一个含有 AN2 基因的位点一致,该基因调控马铃薯的花色。综上所述,这些结果凸显了 OcBSA 利用 F1 群体进行 QTL 测绘的强大功能和广泛用途,因此它有望在主要通过外交繁殖的物种中进行功能基因挖掘。为了方便使用,我们开发了 Windows 和 Linux 版本的 OcBSA,可在 https://gitee.com/Bioinformaticslab/OcBSA 免费获取。
OcBSA: An NGS-based bulk segregant analysis tool for outcross populations.
Constructing inbred lines for self-incompatible species and species with long generation times is challenging, making the use of F1 outcross/segregating populations the main strategy for genetic studies of such species. However, there is a lack of dedicated algorithms/tools for rapid quantitative trait locus (QTL) mapping using the F1 populations. To this end, we have designed and developed an algorithm/tool called OcBSA specifically for QTL mapping of F1 populations. OcBSA transforms the four-haplotype inheritance problem from the two heterozygous diploid parents of the F1 population into the two-haplotype inheritance problem common in current genetic studies by removing the two haplotypes from the heterozygous parent that do not contribute to phenotype segregation in the F1 population. Testing of OcBSA on 1800 simulated F1 populations demonstrated its advantages over other currently available tools in terms of sensitivity and accuracy. In addition, the broad applicability of OcBSA was validated by QTL mapping using seven reported F1 populations of apple, pear, peach, citrus, grape, tea, and rice. We also used OcBSA to map the QTL for flower color in a newly constructed F1 population of potato generated in this study. The OcBSA mapping result was verified by the insertion or deletion markers to be consistent with a previously reported locus harboring the ANTHOCYANIN 2 gene, which regulates potato flower color. Taken together, these results highlight the power and broad utility of OcBSA for QTL mapping using F1 populations and thus a great potential for functional gene mining in outcrossing species. For ease of use, we have developed both Windows and Linux versions of OcBSA, which are freely available at: https://gitee.com/Bioinformaticslab/OcBSA.
期刊介绍:
Molecular Plant is dedicated to serving the plant science community by publishing novel and exciting findings with high significance in plant biology. The journal focuses broadly on cellular biology, physiology, biochemistry, molecular biology, genetics, development, plant-microbe interaction, genomics, bioinformatics, and molecular evolution.
Molecular Plant publishes original research articles, reviews, Correspondence, and Spotlights on the most important developments in plant biology.