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对羊膜动物原发腭和继发腭形态多样性的最新见解。

Recent insights into the morphological diversity in the amniote primary and secondary palates.

作者信息

Abramyan John, Richman Joy Marion

机构信息

Faculty of Dentistry, Life Sciences Institute, University of British Columbia, Vancouver BC, Canada.

出版信息

Dev Dyn. 2015 Dec;244(12):1457-68. doi: 10.1002/dvdy.24338. Epub 2015 Sep 10.

Abstract

The assembly of the upper jaw is a pivotal moment in the embryonic development of amniotes. The upper jaw forms from the fusion of the maxillary, medial nasal, and lateral nasal prominences, resulting in an intact upper lip/beak and nasal cavities; together called the primary palate. This process of fusion requires a balance of proper facial prominence shape and positioning to avoid craniofacial clefting, whilst still accommodating the vast phenotypic diversity of adult amniotes. As such, variation in craniofacial ontogeny is not tolerated beyond certain bounds. For clarity, we discuss primary palatogenesis of amniotes into in two categories, according to whether the nasal and oral cavities remain connected throughout ontogeny or not. The transient separation of these cavities occurs in mammals and crocodilians, while remaining connected in birds, turtles and squamates. In the latter group, the craniofacial prominences fuse around a persistent choanal groove that connects the nasal and oral cavities. Subsequently, all lineages except for turtles, develop a secondary palate that ultimately completely or partially separates oral and nasal cavities. Here, we review the shared, early developmental events and highlight the points at which development diverges in both primary and secondary palate formation.

摘要

上颌骨的组装是羊膜动物胚胎发育中的一个关键时刻。上颌骨由上颌突、内侧鼻突和外侧鼻突融合而成,形成完整的上唇/喙和鼻腔;合称为原发腭。这种融合过程需要适当的面部突起形状和位置保持平衡,以避免颅面裂,同时仍能适应成年羊膜动物的巨大表型多样性。因此,颅面个体发育的变化在一定范围之外是无法容忍的。为了清晰起见,我们根据鼻腔和口腔在整个个体发育过程中是否保持连通,将羊膜动物的原发腭发生分为两类。这些腔的短暂分离发生在哺乳动物和鳄鱼中,而在鸟类、龟类和有鳞目动物中则保持连通。在后一组动物中,颅面突起围绕连接鼻腔和口腔的持续鼻后孔沟融合。随后,除龟类外的所有谱系都发育出一个次生腭,最终完全或部分分隔口腔和鼻腔。在这里,我们回顾了共同的早期发育事件,并强调了原发腭和次生腭形成过程中发育分歧的关键点。

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