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S 座位 F-box 兄弟基因的序列分歧和功能丧失表型与日本梨(Pyrus pyrifolia)自交不亲和中的多种花粉决定因子的非自我识别一致。

Sequence divergence and loss-of-function phenotypes of S locus F-box brothers genes are consistent with non-self recognition by multiple pollen determinants in self-incompatibility of Japanese pear (Pyrus pyrifolia).

机构信息

Graduate School of Horticulture, Chiba University, 648 Matsudo, Matsudo, Chiba 271-8510, Japan.

出版信息

Plant J. 2011 Dec;68(6):1028-38. doi: 10.1111/j.1365-313X.2011.04752.x. Epub 2011 Oct 4.

DOI:10.1111/j.1365-313X.2011.04752.x
PMID:21851432
Abstract

The S-RNase-based gametophytic self-incompatibility (SI) of Rosaceae, Solanaceae, and Plantaginaceae is controlled by at least two tightly linked genes located at the complex S locus; the highly polymorphic S-RNase for pistil specificity and the F-box gene (SFB/SLF) for pollen. Self-incompatibility in Prunus (Rosaceae) is considered to represent a 'self recognition by a single factor' system, because loss-of-function of SFB is associated with self-compatibility, and allelic divergence of SFB is high and comparable to that of S-RNase. In contrast, Petunia (Solanaceae) exhibits 'non-self recognition by multiple factors'. However, the distribution of 'self recognition' and 'non-self recognition' SI systems in different taxa is not clear. In addition, in 'non-self recognition' systems, a loss-of-function phenotype of pollen S is unknown. Here we analyze the divergence of SFBB genes, the multiple pollen S candidates, of a rosaceous plant Japanese pear (Pyrus pyrifolia) and show that intrahaplotypic divergence is high and comparable to the allelic diversity of S-RNase while interhaplotypic divergence is very low. Next, we analyzed loss-of-function of the SFBB1 type gene. Genetic analysis showed that pollen with the mutant haplotype S(4sm) lacking SFBB1-S(4) is rejected by pistils with an otherwise compatible S(1) while it is accepted by other non-self pistils. We found that the S(5) haplotype encodes a truncated SFBB1 protein, even though S(5) pollen is accepted normally by pistils with S(1) and other non-self haplotypes. These findings suggest that Japanese pear has a 'non-self recognition by multiple factors' SI system, although it is a species of Rosaceae to which Prunus also belongs.

摘要

蔷薇科、茄科和车前科的 S-RNase 基配子体自交不亲和(SI)由至少两个紧密连锁的基因控制,这些基因位于复杂的 S 基因座上;高度多态性的 S-RNase 决定了柱头的特异性,而 F-box 基因(SFB/SLF)则决定了花粉。李属(蔷薇科)的自交不亲和被认为代表了“单一因子的自我识别”系统,因为 SFB 的功能丧失与自交亲和性有关,而且 SFB 的等位基因分化程度高,与 S-RNase 的分化程度相当。相比之下,矮牵牛(茄科)表现出“多因子的非自我识别”。然而,不同分类群中“自我识别”和“非自我识别”SI 系统的分布尚不清楚。此外,在“非自我识别”系统中,花粉 S 的功能丧失表型尚不清楚。在这里,我们分析了蔷薇科植物日本梨(Pyrus pyrifolia)的 SFBB 基因和多个花粉 S 候选基因的分化情况,结果表明,同型内的分化程度很高,与 S-RNase 的等位基因多样性相当,而异型间的分化程度非常低。接下来,我们分析了 SFBB1 型基因的功能丧失。遗传分析表明,携带缺失 SFBB1-S(4)的突变型 S(4sm)花粉被带有相容 S(1)的柱头排斥,但被其他非自身柱头接受。我们发现 S(5)单倍型编码一种截断的 SFBB1 蛋白,尽管 S(5)花粉被带有 S(1)和其他非自身单倍型的柱头正常接受。这些发现表明,日本梨具有“多因子的非自我识别”SI 系统,尽管它是蔷薇科的一个物种,李属也属于蔷薇科。

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