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Jag2-Notch1信号通路调控口腔上皮分化和腭部发育。

Jag2-Notch1 signaling regulates oral epithelial differentiation and palate development.

作者信息

Casey Liam M, Lan Yu, Cho Eui-Sic, Maltby Kathleen M, Gridley Thomas, Jiang Rulang

机构信息

Center for Oral Biology and Department of Biomedical Genetics, University of Rochester School of Medicine and Dentistry, Rochester, New York 14642, USA.

出版信息

Dev Dyn. 2006 Jul;235(7):1830-44. doi: 10.1002/dvdy.20821.

Abstract

During mammalian palatogenesis, palatal shelves initially grow vertically from the medial sides of the paired maxillary processes flanking the developing tongue and subsequently elevate and fuse with each other above the tongue to form the intact secondary palate. Pathological palate-mandible or palate-tongue fusions have been reported in humans and other mammals, but the molecular and cellular mechanisms that prevent such aberrant adhesions during normal palate development are unknown. We previously reported that mice deficient in Jag2, which encodes a cell surface ligand for the Notch family receptors, have cleft palate associated with palate-tongue fusions. In this report, we show that Jag2 is expressed throughout the oral epithelium and is required for Notch1 activation during oral epithelial differentiation. We show that Notch1 is normally highly activated in the differentiating oral periderm cells covering the developing tongue and the lateral oral surfaces of the mandibular and maxillary processes during palate development. Oral periderm activation of Notch1 is significantly attenuated during palate development in the Jag2 mutants. Further molecular and ultrastructural analyses indicate that oral epithelial organization and periderm differentiation are disrupted in the Jag2 mutants. Moreover, we show that the Jag2 mutant tongue fused to wild-type palatal shelves in recombinant explant cultures. These data indicate that Jag2-Notch1 signaling is spatiotemporally regulated in the oral epithelia during palate development to prevent premature palatal shelf adhesion to other oral tissues and to facilitate normal adhesion between the elevated palatal shelves.

摘要

在哺乳动物腭发育过程中,腭突最初从位于发育中舌头两侧的成对上颌突内侧垂直生长,随后抬起并在舌头上方相互融合,形成完整的次生腭。人类和其他哺乳动物中已报道了病理性的腭 - 下颌或腭 - 舌融合,但在正常腭发育过程中防止此类异常粘连的分子和细胞机制尚不清楚。我们之前报道过,缺乏Jag2(编码Notch家族受体的细胞表面配体)的小鼠患有腭裂并伴有腭 - 舌融合。在本报告中,我们表明Jag2在整个口腔上皮中表达,并且在口腔上皮分化过程中是Notch1激活所必需的。我们发现,在腭发育过程中,Notch1通常在覆盖发育中舌头以及下颌和上颌突外侧口腔表面的分化口腔周皮细胞中高度激活。在Jag2突变体的腭发育过程中,口腔周皮对Notch1的激活显著减弱。进一步的分子和超微结构分析表明,Jag2突变体中口腔上皮组织和周皮分化受到破坏。此外,我们表明在重组外植体培养中,Jag2突变体的舌头与野生型腭突融合。这些数据表明,在腭发育过程中,Jag2 - Notch1信号在口腔上皮中受到时空调节,以防止腭突过早与其他口腔组织粘连,并促进抬高的腭突之间的正常粘连。

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