Experimental duplication of bilaterian body axes in spider embryos: Holm's organizer and self-regulation of embryonic fields.

IF 0.8 3区 生物学 Q4 CELL BIOLOGY
Development Genes and Evolution Pub Date : 2020-03-01 Epub Date: 2019-04-10 DOI:10.1007/s00427-019-00631-x
Hiroki Oda, Sawa Iwasaki-Yokozawa, Toshiya Usui, Yasuko Akiyama-Oda
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引用次数: 0

Abstract

Bilaterally symmetric body plans of vertebrates and arthropods are defined by a single set of two orthogonal axes, the anterior-posterior (or head-tail) and dorsal-ventral axes. In vertebrates, and especially amphibians, complete or partial doubling of the bilaterian body axes can be induced by two different types of embryological manipulations: transplantation of an organizer region or bi-sectioning of an embryo. Such axis doubling relies on the ability of embryonic fields to flexibly respond to the situation and self-regulate toward forming a whole body. This phenomenon has facilitated experimental efforts to investigate the mechanisms of vertebrate body axes formation. However, few studies have addressed the self-regulatory capabilities of embryonic fields associated with body axes formation in non-vertebrate bilaterians. The pioneer spider embryologist Åke Holm reported twinning of spider embryos induced by both types of embryological manipulations in 1952; yet, his experiments have not been replicated by other investigators, and access to spider or non-vertebrate twins has been limited. In this review, we provide a historical background on twinning experiments in spiders, and an overview of current twinning approaches in familiar spider species and related molecular studies. Moreover, we discuss the benefits of the spider model system for a deeper understanding of the ancestral mechanisms of body axes formation in arthropods, as well as in bilaterians.

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蜘蛛胚胎中两栖动物体轴的实验性复制:霍尔姆组织器和胚胎场的自我调节
脊椎动物和节肢动物的两侧对称体型是由两组正交的单一轴线(前后轴线(或头尾轴线)和背腹轴线)定义的。在脊椎动物,尤其是两栖动物中,可以通过两种不同类型的胚胎学操作诱导两栖动物体轴的完全或部分加倍:移植组织器区域或对胚胎进行双切片。这种体轴加倍依赖于胚胎场灵活应对情况并自我调节以形成一个完整身体的能力。这种现象促进了研究脊椎动物体轴形成机制的实验工作。然而,很少有研究涉及与非脊椎动物体轴形成相关的胚胎场自我调节能力。先驱蜘蛛胚胎学家Åke Holm于1952年报告了通过两种胚胎学操作诱导的蜘蛛胚胎孪生;然而,他的实验并没有被其他研究人员复制,而且获得蜘蛛或非脊椎动物孪生的机会也很有限。在这篇综述中,我们介绍了蜘蛛孪生实验的历史背景,概述了当前在熟悉的蜘蛛物种中进行孪生实验的方法以及相关的分子研究。此外,我们还讨论了蜘蛛模型系统对深入了解节肢动物和两栖动物体轴形成的祖先机制的益处。
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来源期刊
Development Genes and Evolution
Development Genes and Evolution 生物-发育生物学
CiteScore
4.30
自引率
0.00%
发文量
13
审稿时长
>12 weeks
期刊介绍: Development Genes and Evolution publishes high-quality reports on all aspects of development biology and evolutionary biology. The journal reports on experimental and bioinformatics work at the systemic, cellular and molecular levels in the field of animal and plant systems, covering key aspects of the following topics: Embryological and genetic analysis of model and non-model organisms Genes and pattern formation in invertebrates, vertebrates and plants Axial patterning, embryonic induction and fate maps Cellular mechanisms of morphogenesis and organogenesis Stem cells and regeneration Functional genomics of developmental processes Developmental diversity and evolution Evolution of developmentally relevant genes Phylogeny of animals and plants Microevolution Paleontology.
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