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植物花脉序模式形成的分子基础及其对金鱼草花吸引传粉者的影响。

The molecular basis for venation patterning of pigmentation and its effect on pollinator attraction in flowers of Antirrhinum.

机构信息

New Zealand Institute for Plant & Food Research Limited, Private Bag 11600, Palmerston North, New Zealand.

出版信息

New Phytol. 2011 Jan;189(2):602-15. doi: 10.1111/j.1469-8137.2010.03498.x. Epub 2010 Oct 12.

DOI:10.1111/j.1469-8137.2010.03498.x
PMID:21039563
Abstract

Pigment stripes associated with veins (venation) is a common flower colour pattern. The molecular genetics and function of venation were investigated in the genus Antirrhinum, in which venation is determined by Venosa (encoding an R2R3MYB transcription factor). Pollinator preferences were measured by field tests with Antirrhinum majus. Venosa function was examined using in situ hybridization and transient overexpression. The origin of the venation trait was examined by molecular phylogenetics. Venation and full-red flower colouration provide a comparable level of advantage for pollinator attraction relative to palely pigmented or white lines. Ectopic expression of Venosa confers pigmentation outside the veins. Venosa transcript is produced only in small areas of the corolla between the veins and the adaxial epidermis. Phylogenetic analyses suggest that venation patterning is an ancestral trait in Antirrhinum. Different accessions of three species with full-red pigmentation with or without venation patterning have been found. Epidermal-specific venation is defined through overlapping expression domains of the MYB (myoblastoma) and bHLH (basic Helix-Loop-Helix) co-regulators of anthocyanin biosynthesis, with the bHLH providing epidermal specificity and Venosa vein specificity. Venation may be the ancestral trait, with full-red pigmentation a derived, polyphyletic trait. Venation patterning is probably not fixed once species evolve full-red floral pigmentation.

摘要

与静脉(叶脉)相关的色素条纹是一种常见的花朵颜色图案。在金鱼草属中研究了叶脉的分子遗传学和功能,其中叶脉由 Venosa(编码 R2R3MYB 转录因子)决定。通过对金鱼草的野外测试测量了传粉者的偏好。使用原位杂交和瞬时过表达检查了 Venosa 的功能。通过分子系统发育检查了叶脉性状的起源。叶脉和全红色花朵着色相对于淡色或白色线条为传粉者吸引力提供了相当的优势。Venosa 的异位表达赋予了叶脉以外的色素沉着。Venosa 转录本仅在花瓣中脉和近轴表皮之间的小区域产生。系统发育分析表明,叶脉模式是金鱼草的一个祖先特征。已经发现了具有全红色色素沉着的三个物种的不同品系,具有或不具有叶脉模式。表皮特异性叶脉通过花青素生物合成的 MYB(myoblastoma)和 bHLH(基本螺旋-环-螺旋)共同调节剂的重叠表达域来定义,bHLH 提供表皮特异性和 Venosa 叶脉特异性。叶脉可能是祖先性状,全红色色素沉着是衍生的、多源的性状。一旦物种进化出全红色的花色素沉着,叶脉模式可能就不会固定。

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