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时空调控与机械力相互作用是花部进化的主要驱动力。

The interaction between heterochrony and mechanical forces as main driver of floral evolution.

机构信息

Royal Botanic Garden Edinburgh, Edinburgh, Scotland, UK.

出版信息

J Plant Res. 2024 Sep;137(5):697-717. doi: 10.1007/s10265-024-01526-3. Epub 2024 Feb 26.

DOI:10.1007/s10265-024-01526-3
PMID:38407783
Abstract

Heterochrony acts as a fundamental process affecting the early development of organisms in creating a subtle shift in the timing of initiation or the duration of a developmental process. In flowers this process is linked with mechanical forces that cause changes in the interaction of neighbouring floral organs by altering the timing and rate of initiation of organs. Heterochrony leads to a delay or acceleration of the development of neighbouring primordia, inducing a change in the morphospace of the flowers. As changes in the timing of development may affect organs differently at different stages of development, these shifts eventually lead to major morphological changes such as altered organ positions, fusions, or organ reductions with profound consequences for floral evolution and the diversification of flowers. By concentrating on early developmental stages in flowers it is possible to understand how heterochrony is responsible for shifts in organ position and the establishment of a novel floral Bauplan. However, it remains difficult to separate heterochrony as a process from pattern, as both are intimately linked. Therefore it is essential to connect different patterns in flowers through the process of developmental change.Examples illustrating the importance of heterochronic shifts affecting different organs of the flower are presented and discussed. These cover the transition from inflorescence to flower through the interaction of bracts and bracteoles, the pressure exercised by the perianth on the androecium and gynoecium, the inversed influence of stamens on petals, and the centrifugal influence of carpels on the androecium. Different processes are explored, including the occurrence of obdiplostemony, the onset of common primordia, variable carpel positions, and organ reduction and loss.

摘要

时变作用是影响生物体早期发育的基本过程,它在启动时间或发育过程持续时间上产生微妙的变化。在花中,这个过程与机械力有关,机械力通过改变器官的启动时间和速度来引起相邻花器官之间相互作用的变化。时变导致相邻原基的发育延迟或加速,从而改变花的形态空间。由于发育时间的变化可能在发育的不同阶段对器官产生不同的影响,这些变化最终导致主要的形态变化,如改变器官位置、融合或器官减少,这对花的进化和花的多样化有深远的影响。通过集中研究花的早期发育阶段,可以了解时变如何导致器官位置的变化和新的花形态发生。然而,要将时变作为一个过程与模式区分开来仍然很困难,因为两者密切相关。因此,通过发育变化将不同的模式联系起来是至关重要的。本文通过举例说明了影响花的不同器官的时变转变的重要性,并对其进行了讨论。这些例子涵盖了从花序到花的转变,涉及苞片和小苞片的相互作用、花被对雄蕊和雌蕊的压力、雄蕊对花瓣的反向影响以及心皮对雄蕊的离心影响。探讨了不同的过程,包括副二体雄蕊的发生、共同原基的开始、心皮位置的变化、器官减少和缺失。

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本文引用的文献

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Prophyll in Monocots: The Starting Point of Lateral Shoot Phyllotaxis.单子叶植物中的前叶:侧枝叶序的起始点。
Front Plant Sci. 2022 Apr 13;13:855146. doi: 10.3389/fpls.2022.855146. eCollection 2022.
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Mechanical Forces in Floral Development.花发育中的机械力。
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Delayed differentiation of epidermal cells walls can underlie pedomorphosis in plants: the case of pedomorphic petals in the hummingbird-pollinated Caiophora hibiscifolia (Loasaceae, subfam. Loasoideae) species.
表皮细胞壁的延迟分化可能是植物幼态持续的基础:以蜂鸟传粉的芙蓉叶彩杯草(刺莲花科,刺莲花亚科)中幼态花瓣为例。
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What is the nature of petals in Caryophyllaceae? Developmental evidence clarifies their evolutionary origin.石竹科花瓣的本质是什么?发育证据阐明了它们的进化起源。
Ann Bot. 2019 Sep 24;124(2):281-295. doi: 10.1093/aob/mcz075.
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The Times They Are A-Changin': Heterochrony in Plant Development and Evolution.时代在变:植物发育与进化中的异时性
Front Plant Sci. 2018 Sep 18;9:1349. doi: 10.3389/fpls.2018.01349. eCollection 2018.
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Floral development of petaloid Alismatales as an insight into the origin of the trimerous Bauplan in monocot flowers.花瓣状泽泻目植物的花发育,有助于深入了解单子叶植物花中三轮式基本结构的起源。
J Plant Res. 2018 May;131(3):395-407. doi: 10.1007/s10265-018-1022-0. Epub 2018 Mar 16.
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Floral morphology and anatomy of Ophiocaryon, a paedomorphic genus of Sabiaceae.铁青树科幼态属植物——蛇核木属的花形态与解剖结构
Ann Bot. 2017 Nov 10;120(5):819-832. doi: 10.1093/aob/mcx115.
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'Living stones' reveal alternative petal identity programs within the core eudicots.“活石”揭示了核心真双子叶植物中花瓣身份的替代程序。
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