作为生殖细胞和性腺再生模型的无脊椎动物

IF 1.8 3区 生物学 Q3 DEVELOPMENTAL BIOLOGY
B. Duygu Özpolat
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引用次数: 0

摘要

生殖细胞(生殖细胞及其祖细胞)是有性生殖生物的下一代。在果蝇、线虫、青蛙和小鼠等成熟的研究生物中,生殖细胞的丧失或移除往往会导致不育。这些生物的生殖细胞无法再生,这强化了生殖细胞-体细胞屏障的教条,即生殖细胞在胚胎发生过程中被搁置,不能被体细胞取代。然而,与此形成鲜明对比的是,许多动物,包括节肢动物(无脊椎动物)、水螅、扁形动物、海星、海胆和鳞鳃纲动物,都能再生生殖细胞。在这里,我将回顾环口纲动物的生殖细胞和性腺再生,这一研究历史悠久,可以追溯到 20 世纪初。例子包括环口纲动物的整个系统发育、各个发育阶段和繁殖策略。作为再生、嫁接和无性繁殖的一部分,成年环带动物可再生生殖细胞。无环动物还能在胚胎中的生殖细胞祖细胞被消减后恢复生殖细胞。我提出了一个研究环带动物生殖细胞再生细胞来源的框架,并讨论了支持该框架内不同可能性的文献,其中生殖细胞-体细胞分离可能会也可能不会被保留。有了当代的基因谱系追踪和生物信息学工具,以及几种通过基因改造的环带动物模型,我们即将回答一个多世纪以来困惑许多人的重大问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Annelids as models of germ cell and gonad regeneration

Germ cells (reproductive cells and their progenitors) give rise to the next generation in sexually reproducing organisms. The loss or removal of germ cells often leads to sterility in established research organisms such as the fruit fly, nematodes, frog, and mouse. The failure to regenerate germ cells in these organisms reinforced the dogma of germline–soma barrier in which germ cells are set-aside during embryogenesis and cannot be replaced by somatic cells. However, in stark contrast, many animals including segmented worms (annelids), hydrozoans, planaria, sea stars, sea urchins, and tunicates can regenerate germ cells. Here I review germ cell and gonad regeneration in annelids, a rich history of research that dates back to the early 20th century in this highly regenerative group. Examples include annelids from across the annelid phylogeny, across developmental stages, and reproductive strategies. Adult annelids regenerate germ cells as a part of regeneration, grafting, and asexual reproduction. Annelids can also recover germ cells after ablation of germ cell progenitors in the embryos. I present a framework to investigate cellular sources of germ cell regeneration in annelids, and discuss the literature that supports different possibilities within this framework, where germ–soma separation may or may not be preserved. With contemporary genetic-lineage tracing and bioinformatics tools, and several genetically enabled annelid models, we are at the brink of answering the big questions that puzzled many for over more than a century.

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来源期刊
CiteScore
4.80
自引率
9.10%
发文量
63
审稿时长
6-12 weeks
期刊介绍: Developmental Evolution is a branch of evolutionary biology that integrates evidence and concepts from developmental biology, phylogenetics, comparative morphology, evolutionary genetics and increasingly also genomics, systems biology as well as synthetic biology to gain an understanding of the structure and evolution of organisms. The Journal of Experimental Zoology -B: Molecular and Developmental Evolution provides a forum where these fields are invited to bring together their insights to further a synthetic understanding of evolution from the molecular through the organismic level. Contributions from all these branches of science are welcome to JEZB. We particularly encourage submissions that apply the tools of genomics, as well as systems and synthetic biology to developmental evolution. At this time the impact of these emerging fields on developmental evolution has not been explored to its fullest extent and for this reason we are eager to foster the relationship of systems and synthetic biology with devo evo.
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