元基因组探测,绘制全球海洋基因组分类和代谢基础图集

Elisa Laiolo, Intikhab Alam, Mahmut Uludag, Tahira Jamil, S. Agustí, Takashi Gojobori, S. Acinas, J. Gasol, Carlos M Duarte
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引用次数: 1

摘要

全球海洋基因组(海洋生物的基因库及其编码的功能信息)是科学和社会尚未开发的重要资源,在生物医学、能源和食品等领域的生物技术应用日益广泛。散弹枪测序和元基因组学现在可用于对海洋微生物生命的多样性进行编目并探索其功能潜力,但受限于样本覆盖范围、合适的测序平台和计算能力。在此,我们基于对 2,102 个海洋元基因组样本的分析,通过包含约 3.175 亿个基因簇的 KAUST 元基因组分析平台(KMAP)全球海洋基因目录 1.0 进行基因组装和注释,对全球海洋基因组进行了新的综合。在分类学上,我们报告了海洋基因在生命树、不同海洋盆地和深海区生物群落中的分布情况。在功能上,我们绘制了海洋基因与蛋白质家族和生物地球化学过程的关系图,包括处理三种元素的主要微生物代谢途径,这些元素在生物地球化学循环中发挥着重要作用,并与气候变化有关。这些数据扩展了我们对海洋微生物群复杂、动态的性质及其代谢能力的理解。进一步的研究对于释放海洋基因组的潜力以及了解和预测人类引起的变化(包括污染和气候变化)的影响都具有至关重要的全球意义。以假设为导向的进一步研究应针对取样不足的深海和海底微生物群落,采用强化的元基因组方法,以更好地了解海洋生态系统的功能。对必要的计算能力进行投资至关重要,适当的知识产权框架也是如此。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Metagenomic probing toward an atlas of the taxonomic and metabolic foundations of the global ocean genome
The global ocean genome (the pool of genes in marine organisms and the functional information they encode) is a major, untapped resource for science and society with a growing range of biotechnology applications in sectors such as biomedicine, energy, and food. Shotgun sequencing and metagenomics can now be used to catalog the diversity of ocean microbial life and to explore its functional potential, but has been limited by sample coverage, access to suitable sequencing platforms, and computational capacity. Here we provide a novel synthesis of the global ocean genome based on analysis of 2,102 sampled ocean metagenomes, with gene assembly and annotation via the KAUST Metagenome Analysis Platform (KMAP) Global Ocean Gene Catalog 1.0 containing ~317.5 million gene clusters. Taxonomically, we report the distribution of marine genes across the tree of life and different ocean basins and depth zone biomes. Functionally, we map its relationship to protein families and biogeochemical processes, including the major microbial metabolic pathways that process three elements that play fundamental roles in biogeochemical cycles and are relevant to climate change. These data extend our understanding of the complex, dynamic nature of the ocean microbiome and its metabolic capabilities. Further research is of critical global importance both to unlock the potential of the ocean genome and to understand and predict the effects of human-induced changes, including pollution and climate change. Further hypothesis-driven research should target under-sampled deep sea and benthic microbial communities using enhanced metagenomic methods, to better understand marine ecosystem functioning. Investment in the necessary computational capacity is essential, as are suitable intellectual property frameworks.
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