研究红树林鳉鱼(Kryptolebias marmoratus)的遗传工具--红树林鳉鱼是表型可塑性的新兴脊椎动物模型

IF 1.8 3区 生物学 Q3 DEVELOPMENTAL BIOLOGY
Cheng-Yu Li, Helena Boldt, Emily Parent, Jax Ficklin, Althea James, Troy J. Anlage, Lena M. Boyer, Brianna R. Pierce, Kellee R. Siegfried, Matthew P. Harris, Eric S. Haag
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引用次数: 0

摘要

鲤形目远摄鱼 Kryptolebias marmoratus(Kmar)有一系列独特的表型和行为,这是其他鱼类所没有的。其中许多表型是离散的,可塑性很强--在个体内部随时间而变化,在某些情况下是可逆的。克氏原鲤及其不育姊妹种克氏雌雄同体鱼是唯一已知的自交脊椎动物。这种不寻常的性模式有可能为脊椎动物的性发育调控提供独特的见解,同时也适合遗传学研究。Kmar 很容易适应实验室环境,几乎不需要维护。然而,其内部受精和较小的离合器大小限制了其实验用途。为了支持将 Kmar 作为遗传模型,我们比较了其他饲养技术,以最大限度地回收早期分裂期胚胎。我们发现,频繁收集卵子可提高产量,蛋白酶处理可提高孵化成功率。我们完成了前向诱变筛选,并获得了几个突变品系,它们是该模型遗传学的重要工具。其中几个将作为有用的可行隐性标记用于标记杂交。重要的是,突变体吻姬蛙的胚胎产卵率是野生型的两倍。将频繁的卵子收集与吻唇突变体背景相结合,可大大提高早期胚胎产量。这些改进足以对早期发育进行实验分析,并利用 CRISPR/Cas9 核酸酶成功地对内源性酪氨酸酶基因进行单倍和双倍等位基因定向敲除。总之,这些工具将促进这种迷人鱼类的现代发育遗传学,从而在未来深入了解可塑性的调控。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Genetic tools for the study of the mangrove killifish, Kryptolebias marmoratus, an emerging vertebrate model for phenotypic plasticity

Genetic tools for the study of the mangrove killifish, Kryptolebias marmoratus, an emerging vertebrate model for phenotypic plasticity

Kryptolebias marmoratus (Kmar), a teleost fish of the order Cyprinodontiformes, has a suite of unique phenotypes and behaviors not observed in other fishes. Many of these phenotypes are discrete and highly plastic—varying over time within an individual, and in some cases reversible. Kmar and its interfertile sister species, K. hermaphroditus, are the only known self-fertile vertebrates. This unusual sexual mode has the potential to provide unique insights into the regulation of vertebrate sexual development, and also lends itself to genetics. Kmar is easily adapted to the lab and requires little maintenance. However, its internal fertilization and small clutch size limits its experimental use. To support Kmar as a genetic model, we compared alternative husbandry techniques to maximize recovery of early cleavage-stage embryos. We find that frequent egg collection enhances yield, and that protease treatment promotes the greatest hatching success. We completed a forward mutagenesis screen and recovered several mutant lines that serve as important tools for genetics in this model. Several will serve as useful viable recessive markers for marking crosses. Importantly, the mutant kissylips lays embryos at twice the rate of wild-type. Combining frequent egg collection with the kissylips mutant background allows for a substantial enhancement of early embryo yield. These improvements were sufficient to allow experimental analysis of early development and the successful mono- and bi-allelic targeted knockout of an endogenous tyrosinase gene with CRISPR/Cas9 nucleases. Collectively, these tools will facilitate modern developmental genetics in this fascinating fish, leading to future insights into the regulation of plasticity.

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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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