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花部基本图式的进化与遗传控制。

Evolution and genetic control of the floral ground plan.

机构信息

School of Biological Sciences, Monash University, Clayton Campus, Melbourne, Victoria, 3800, Australia.

出版信息

New Phytol. 2018 Oct;220(1):70-86. doi: 10.1111/nph.15282. Epub 2018 Jun 30.

DOI:10.1111/nph.15282
PMID:29959892
Abstract

Contents Summary 70 I. Introduction 70 II. What is the floral ground plan? 71 III. Diversity and evolution of the floral ground plan 72 IV. Genetic mechanisms 77 V. What's next? 82 Acknowledgements 83 References 83 SUMMARY: The floral ground plan is a map of where and when floral organ primordia arise. New results combining the defined phylogeny of flowering plants with extensive character mapping have predicted that the angiosperm ancestor had whorls rather than spirals of floral organs in large numbers, and was bisexual. More confidently, the monocot ancestor likely had three organs in each whorl, whereas the rosid and asterid ancestor (Pentapetalae) had five, with the perianth now divided into sepals and petals. Genetic mechanisms underlying the establishment of the floral ground plan are being deduced using model species, the rosid Arabidopsis, the asterid Antirrhinum, and in grasses such as rice. In this review, evolutionary and genetic conclusions are drawn together, especially considering how known genes may control individual processes in the development and evolution of ground plans. These components include organ phyllotaxis, boundary formation, organ identity, merism (the number or organs per whorl), variation in the form of primordia, organ fusion, intercalary growth, floral symmetry, determinacy and, finally, cases where the distinction between flowers and inflorescences is blurred. It seems likely that new pathways of ground plan evolution, and new signalling mechanisms, will soon be uncovered by integrating morphological and genetic approaches.

摘要

内容概述 70 I. 引言 70 II. 什么是花的基本图式? 71 III. 花的基本图式的多样性和进化 72 IV. 遗传机制 77 V. 下一步是什么? 82 致谢 83 参考文献 83 概述:花的基本图式是花器官原基出现的位置和时间的图谱。将开花植物的定义系统发育与广泛的特征映射相结合的新结果预测,被子植物的祖先有大量的轮生而不是螺旋状的花器官,并且是两性的。更有把握地说,单子叶植物的祖先可能每一轮有三个器官,而蔷薇和菊科植物(五桠果)的祖先有五个器官,花被现在分为萼片和花瓣。使用模式物种,蔷薇科的拟南芥、玄参科的金鱼草,以及禾本科的水稻等,正在推导出花的基本图式建立的遗传机制。在这篇综述中,特别是考虑到已知基因如何控制基本图式的发育和进化中的单个过程,将进化和遗传结论结合在一起。这些组成部分包括器官叶序、边界形成、器官身份、每轮器官数量(轮数)、原基形态的变化、器官融合、居间生长、花对称性、确定性以及最后,花和花序之间的区别变得模糊的情况。通过整合形态学和遗传方法,似乎很快就会发现新的基本图式进化途径和新的信号机制。

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