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海鞘与脊索动物发育程序的可塑性

Ascidians and the plasticity of the chordate developmental program.

作者信息

Lemaire Patrick, Smith William C, Nishida Hiroki

机构信息

Institut de Biologie du Développement de Marseille-Luminy (IBDML), UMR6216, CNRS-Université de la Méditerranée, case 907, Campus de Luminy, F-13288 Marseille cedex 9, France.

出版信息

Curr Biol. 2008 Jul 22;18(14):R620-31. doi: 10.1016/j.cub.2008.05.039.

Abstract

Little is known about the ancient chordates that gave rise to the first vertebrates, but the descendants of other invertebrate chordates extant at the time still flourish in the ocean. These invertebrates include the cephalochordates and tunicates, whose larvae share with vertebrate embryos a common body plan with a central notochord and a dorsal nerve cord. Tunicates are now thought to be the sister group of vertebrates. However, research based on several species of ascidians, a diverse and wide-spread class of tunicates, revealed that the molecular strategies underlying their development appear to diverge greatly from those found in vertebrates. Furthermore, the adult body plan of most tunicates, which arises following an extensive post-larval metamorphosis, shows little resemblance to the body plan of any other chordate. In this review, we compare the developmental strategies of ascidians and vertebrates and argue that the very divergence of these strategies reveals the surprising level of plasticity of the chordate developmental program and is a rich resource to identify core regulatory mechanisms that are evolutionarily conserved in chordates. Further, we propose that the comparative analysis of the architecture of ascidian and vertebrate gene regulatory networks may provide critical insight into the origin of the chordate body plan.

摘要

关于产生首批脊椎动物的古代脊索动物,我们了解甚少,但当时现存的其他无脊椎动物脊索动物的后代如今仍在海洋中繁盛。这些无脊椎动物包括头索动物和被囊动物,它们的幼虫与脊椎动物胚胎有着共同的身体结构,都有一条中央脊索和一条背神经索。现在认为被囊动物是脊椎动物的姐妹类群。然而,基于几种海鞘(被囊动物的一个多样且广泛分布的类别)的研究表明,其发育背后的分子策略似乎与在脊椎动物中发现的策略有很大差异。此外,大多数被囊动物在广泛的幼体后变态之后形成的成体身体结构,与其他任何脊索动物的身体结构几乎没有相似之处。在本综述中,我们比较了海鞘和脊椎动物的发育策略,并认为这些策略的差异揭示了脊索动物发育程序惊人的可塑性水平,并且是识别在脊索动物中进化保守的核心调控机制的丰富资源。此外,我们提出对海鞘和脊椎动物基因调控网络结构的比较分析可能为深入了解脊索动物身体结构的起源提供关键见解。

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