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普通荞麦的高分辨率转录组图谱及改进的基因组组装

High-Resolution Transcriptome Atlas and Improved Genome Assembly of Common Buckwheat, .

作者信息

Penin Aleksey A, Kasianov Artem S, Klepikova Anna V, Kirov Ilya V, Gerasimov Evgeny S, Fesenko Aleksey N, Logacheva Maria D

机构信息

Institute for Information Transmission Problems of the Russian Academy of Sciences, Moscow, Russia.

All-Russia Research Institute of Agricultural Biotechnology, Moscow, Russia.

出版信息

Front Plant Sci. 2021 Mar 16;12:612382. doi: 10.3389/fpls.2021.612382. eCollection 2021.

DOI:10.3389/fpls.2021.612382
PMID:33815435
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC8010679/
Abstract

Common buckwheat () is an important non-cereal grain crop and a prospective component of functional food. Despite this, the genomic resources for this species and for the whole family Polygonaceae, to which it belongs, are scarce. Here, we report the assembly of the buckwheat genome using long-read technology and a high-resolution expression atlas including 46 organs and developmental stages. We found that the buckwheat genome has an extremely high content of transposable elements, including several classes of recently (0.5-1 Mya) multiplied TEs ("transposon burst") and gradually accumulated TEs. The difference in TE content is a major factor contributing to the three-fold increase in the genome size of compared with its sister species . Moreover, we detected the differences in TE content between the wild ancestral subspecies ssp. and buckwheat cultivars, suggesting that TE activity accompanied buckwheat domestication. Expression profiling allowed us to test a hypothesis about the genetic control of petaloidy of tepals in buckwheat. We showed that it is not mediated by B-class gene activity, in contrast to the prediction from the ABC model. Based on a survey of expression profiles and phylogenetic analysis, we identified the MYB family transcription factor gene tr_18111 as a potential candidate for the determination of conical cells in buckwheat petaloid tepals. The information on expression patterns has been integrated into the publicly available database TraVA: http://travadb.org/browse/Species=Fesc/. The improved genome assembly and transcriptomic resources will enable research on buckwheat, including practical applications.

摘要

普通荞麦()是一种重要的非谷类粮食作物,也是功能性食品的潜在成分。尽管如此,该物种及其所属的蓼科的基因组资源却很稀缺。在此,我们报告了利用长读长技术组装的荞麦基因组以及包含46个器官和发育阶段的高分辨率表达图谱。我们发现荞麦基因组中可移动元件的含量极高,包括几类近期(0.5 - 1百万年前)倍增的转座元件(“转座子爆发”)以及逐渐积累的转座元件。转座元件含量的差异是导致其基因组大小相较于其姊妹物种增加了三倍的主要因素。此外,我们检测到野生祖先亚种和荞麦栽培品种之间转座元件含量的差异,这表明转座元件活性伴随着荞麦的驯化过程。表达谱分析使我们能够检验关于荞麦花被片花瓣状遗传控制的假说。我们发现它并非由B类基因活性介导,这与ABC模型的预测相反。基于对表达谱的调查和系统发育分析,我们确定MYB家族转录因子基因tr_18111是决定荞麦花瓣状花被片中锥形细胞的潜在候选基因。关于表达模式的信息已整合到公开可用的数据库TraVA中:http://travadb.org/browse/Species=Fesc/。改进后的基因组组装和转录组资源将推动对荞麦的研究,包括实际应用。

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