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水螅细胞外基质在再生、模式形成和细胞分化中的组成、结构、生物发生及功能

Components, structure, biogenesis and function of the Hydra extracellular matrix in regeneration, pattern formation and cell differentiation.

作者信息

Sarras Michael P

机构信息

Department of Cell Biology and Anatomy, Rosalind Franklin University of Medicine and Science, North Chicago, IL., USA.

出版信息

Int J Dev Biol. 2012;56(6-8):567-76. doi: 10.1387/ijdb.113445ms.

DOI:10.1387/ijdb.113445ms
PMID:22689358
Abstract

The body wall of Hydra is organized as an epithelial bilayer (ectoderm and endoderm) with an intervening extracellular matrix (ECM), termed mesoglea by early biologists. Morphological studies have determined that Hydra ECM is composed of two basal lamina layers positioned at the base of each epithelial layer with an intervening interstitial matrix. Molecular and biochemical analyses of Hydra ECM have established that it contains components similar to those seen in more complicated vertebrate species. These components include such macromolecules as laminin, type IV collagen, and various fibrillar collagens. These components are synthesized in a complicated manner involving cross-talk between the epithelial bilayer. Any perturbation to ECM biogenesis leads to a blockage in Hydra morphogenesis. Blockage in ECM/cell interactions in the adult polyp also leads to problems in epithelial transdifferentiation processes. In terms of biophysical parameters, Hydra ECM is highly flexible; a property that facilitates continuous movements along the organism's longitudinal and radial axis. This is in contrast to the more rigid matrices often found in vertebrates. The flexible nature of Hydra ECM can in part now be explained by the unique structure of the organism's type IV collagen and fibrillar collagens. This review will focus on Hydra ECM in regard to: 1) its general structure, 2) its molecular composition, 3) the biophysical basis for the flexible nature of Hydra's ECM, 4) the relationship of the biogenesis of Hydra ECM to regeneration of body form, and 5) the functional role of Hydra ECM during pattern formation and cell differentiation.

摘要

水螅的体壁由上皮双层结构(外胚层和内胚层)组成,中间隔着细胞外基质(ECM),早期生物学家将其称为中胶层。形态学研究表明,水螅的细胞外基质由位于每个上皮层底部的两层基膜以及中间的间质基质组成。对水螅细胞外基质的分子和生化分析表明,它含有与更复杂的脊椎动物物种中所见成分相似的成分。这些成分包括层粘连蛋白、IV型胶原蛋白和各种纤维状胶原蛋白等大分子。这些成分以一种复杂的方式合成,涉及上皮双层之间的相互作用。细胞外基质生物发生的任何扰动都会导致水螅形态发生受阻。成年水螅中细胞外基质/细胞相互作用的受阻也会导致上皮转分化过程出现问题。就生物物理参数而言,水螅的细胞外基质具有高度的柔韧性;这一特性有助于沿生物体的纵轴和径向轴进行连续运动。这与脊椎动物中常见的更刚性的基质形成对比。水螅细胞外基质的柔韧性现在部分可以通过生物体IV型胶原蛋白和纤维状胶原蛋白的独特结构来解释。本综述将聚焦于水螅的细胞外基质,内容包括:1)其总体结构,2)其分子组成,3)水螅细胞外基质柔韧性的生物物理基础,4)水螅细胞外基质生物发生与身体形态再生的关系,以及5)水螅细胞外基质在模式形成和细胞分化过程中的功能作用。

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