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Eimeria genomics: Where are we now and where are we going?

机译:Eimeria基因组学:我们现在在哪里,我们要去哪里?

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The evolution of sequencing technologies, from Sanger to next generation (NGS) and now the emerging third generation, has prompted a radical frameshift moving genomics from the specialist to the mainstream. For parasitology, genomics has moved fastest for the protozoa with sequence assemblies becoming available for multiple genera including Babesia, Cryptosporidium, Eimeria, Giardia, Leishmania, Neospora, Plasmodium, Theileria, Toxoplasma and Trypanosoma. Progress has commonly been slower for parasites of animals which lack zoonotic potential, but the deficit is now being redressed with impact likely in the areas of drug and vaccine development, molecular diagnostics and population biology. Genomics studies with the apicomplexan Eimeria species clearly illustrate the approaches and opportunities available. Specifically, more than ten years after initiation of a genome sequencing project a sequence assembly was published for Eimeria tenella in 2014, complemented by assemblies for all other Eimeria species which infect the chicken and Eimeria falciformis, a parasite of the mouse. Public access to these and other coccidian genome assemblies through resources such as GeneDB and ToxoDB now promotes comparative analysis, encouraging better use of shared resources and enhancing opportunities for development of novel diagnostic and control strategies. In the short term genomics resources support development of targeted and genome-wide genetic markers such as single nucleotide polymorphisms (SNPs), with whole genome re-sequencing becoming viable in the near future. Experimental power will develop rapidly as additional species, strains and isolates are sampled with particular emphasis on population structure and allelic diversity. (C) 2015 Elsevier B.V. All rights reserved.
机译:从桑格(Sanger)到下一代(NGS)以及现在新兴的第三代测序技术的发展,已经引起了彻底的移码,将基因组学从专家转移到了主流。对于寄生虫学,原虫的基因组学发展最快,序列装配可用于多个属,包括巴贝虫,隐孢子虫,艾美球虫,贾第虫,利什曼原虫,新孢子虫,疟原虫,泰勒虫,弓形虫和锥虫。缺乏人畜共患病潜力的动物寄生虫的进展通常较慢,但目前正在用药物和疫苗开发,分子诊断和种群生物学等领域的影响来弥补这一缺陷。 apicomplexan艾美球虫物种的基因组学研究清楚地说明了可用的方法和机会。具体而言,在启动基因组测序项目十多年后,2014年发布了艾美尔球虫的序列装配体,此外还感染了鸡和艾美球虫(小鼠的寄生虫)的所有其他艾美球虫物种的装配体。现在,公众可以通过诸如GeneDB和ToxoDB之类的资源访问这些球虫和其他球虫基因组程序,从而促进了比较分析,鼓励更好地利用共享资源,并增加了开发新型诊断和控制策略的机会。在短期内,基因组学资源可支持开发有针对性的全基因组遗传标记,例如单核苷酸多态性(SNP),并在不久的将来实现全基因组重测序。随着对其他​​物种,菌株和分离株的采样,尤其是种群结构和等位基因多样性的采样,实验能力将迅速发展。 (C)2015 Elsevier B.V.保留所有权利。

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