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在水稻中光周期途径基因的自然和人工选择足迹。

Footprints of natural and artificial selection for photoperiod pathway genes in Oryza.

机构信息

Department of Life Sciences, National Cheng Kung University, Tainan 701, Taiwan.

出版信息

Plant J. 2012 Jun;70(5):769-82. doi: 10.1111/j.1365-313X.2012.04915.x. Epub 2012 Mar 8.

DOI:10.1111/j.1365-313X.2012.04915.x
PMID:22268451
Abstract

Asian rice, Oryza sativa, consists of two major subspecies, indica and japonica, which are physiologically differentiated and adapted to different latitudes. Genes for photoperiod sensitivity are likely targets of selection along latitude. We examined the footprints of natural and artificial selections for four major genes of the photoperiod pathway, namely PHYTOCHROME B (PhyB), HEADING DATE 1 (Hd1), HEADING DATE 3a (Hd3a), and EARLY HEADING DATE 1 (Ehd1), by investigation of the patterns of nucleotide polymorphisms in cultivated and wild rice. Geographical subdivision between tropical and subtropical O. rufipogon was found for all of the photoperiod genes in plants divided by the Tropic of Cancer (TOC). All of these genes, except for PhyB, were characterized by the existence of clades that split a long time ago and that corresponded to latitudinal subdivisions, and revealed a likely diversifying selection. Ssp. indica showed close affinity to tropical O. rufipogon for all genes, while ssp. japonica, which has a much wider range of distribution, displayed complex patterns of differentiation from O. rufipogon, which reflected various agricultural needs in relation to crop yield. In japonica, all genes, except Hd3a, were genetically differentiated at the TOC, while geographical subdivision occurred at 31°N in Hd3a, probably the result of varying photoperiods. Many other features of the photoperiod genes revealed domestication signatures, which included high linkage disequilibrium (LD) within genes, the occurrence of frequent and recurrent non-functional Hd1 mutants in cultivated rice, crossovers between subtropical and tropical alleles of Hd1, and significant LD between Hd1 and Hd3a in japonica and indica.

摘要

亚洲稻,即 Oryza sativa,由两个主要亚种组成,分别是籼稻和粳稻,它们在生理上存在差异,适应不同的纬度。光周期敏感性基因可能是沿纬度选择的目标。我们通过对光周期途径的四个主要基因(PHYTOCHROME B(PhyB)、HEADING DATE 1(Hd1)、HEADING DATE 3a(Hd3a)和EARLY HEADING DATE 1(Ehd1))的核苷酸多态性模式进行研究,考察了这些基因在栽培稻和野生稻中的自然和人工选择的痕迹。在植物中,按照北回归线(Tropic of Cancer,TOC)将热带和亚热带的 O. rufipogon 分开,发现所有光周期基因都存在地理分区。除 PhyB 外,所有这些基因都存在很久以前分裂的支系,这些支系与纬度分区相对应,表明存在可能的多样化选择。籼稻亚种与所有基因的热带 O. rufipogon 亲缘关系密切,而分布范围更广的粳稻亚种与 O. rufipogon 的分化模式复杂,反映了与作物产量相关的各种农业需求。在粳稻中,除 Hd3a 外,所有基因在 TOC 处都存在遗传分化,而 Hd3a 则在 31°N 处发生地理分化,可能是由于光周期的变化。光周期基因的许多其他特征也揭示了驯化的特征,包括基因内的高度连锁不平衡(linkage disequilibrium,LD)、栽培稻中频繁出现和反复出现的非功能 Hd1 突变体、Hd1 中亚热带和热带等位基因之间的交叉以及 Hd1 和 Hd3a 之间在粳稻和籼稻中的显著 LD。

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