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果蝇卵壳形成过程中上皮形态发生的多样性。

Diversity of epithelial morphogenesis during eggshell formation in drosophilids.

作者信息

Osterfield Miriam, Schüpbach Trudi, Wieschaus Eric, Shvartsman Stanislav Y

机构信息

Lewis-Sigler Institute for Integrative Genomics, Princeton University, Princeton, NJ 08544, USA

Department of Molecular Biology, Princeton University, Princeton, NJ 08544, USA.

出版信息

Development. 2015 Jun 1;142(11):1971-7. doi: 10.1242/dev.119404. Epub 2015 May 7.

Abstract

The eggshells of drosophilid species provide a powerful model for studying the origins of morphological diversity. The dorsal appendages, or respiratory filaments, of these eggshells display a remarkable interspecies variation in number and shape, and the epithelial patterning underlying the formation of these structures is an area of active research. To extend the analysis of dorsal appendage formation to include morphogenesis, we developed an improved 3D image reconstruction approach. This approach revealed considerable interspecies variation in the cell shape changes and neighbor exchanges underlying appendage formation. Specifically, although the appendage floor in Drosophila melanogaster is formed through spatially ordered neighbor exchanges, the same structure in Scaptodrosophila pattersoni is formed through extreme changes in cell shape, whereas Drosophila funebris appears to display a combination of both cellular mechanisms. Furthermore, localization patterns of Par3/Bazooka suggest a self-organized, cell polarity-based origin for the variability of appendage number in S. pattersoni. Our results suggest that species deploy different combinations of apically and basally driven mechanisms to convert a two-dimensional primordium into a three-dimensional structure, and provide new directions for exploring the molecular origins of interspecies morphological variation.

摘要

果蝇物种的卵壳为研究形态多样性的起源提供了一个有力的模型。这些卵壳的背侧附属物或呼吸丝在数量和形状上表现出显著的种间差异,而这些结构形成背后的上皮图案化是一个活跃的研究领域。为了将背侧附属物形成的分析扩展到形态发生,我们开发了一种改进的三维图像重建方法。这种方法揭示了附属物形成过程中细胞形状变化和邻居交换方面存在相当大的种间差异。具体来说,虽然黑腹果蝇的附属物底部是通过空间有序的邻居交换形成的,但派氏果蝇同一结构是通过细胞形状的极端变化形成的,而丧服果蝇似乎表现出这两种细胞机制的组合。此外,Par3/巴祖卡蛋白的定位模式表明,派氏果蝇附属物数量的变异性起源于一种基于细胞极性的自组织机制。我们的结果表明,不同物种采用顶端和基部驱动机制的不同组合,将二维原基转化为三维结构,并为探索种间形态变异的分子起源提供了新的方向。

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