微生物群
功能(生物学)
蛋白质功能
基因
背景(考古学)
基因组
计算生物学
人体微生物群
遗传学
生物
同源(生物学)
人类微生物组计划
微生物遗传学
人类蛋白质
肠道微生物群
细菌蛋白
蛋白质-蛋白质相互作用
进化生物学
蛋白质测序
微生物种群生物学
序列同源性
蛋白质组
基因组学
比例(比率)
基因序列
系统生物学
细菌
基因家族
微生物生态学
生物信息学
基因组信息
蛋白质家族
蛋白质结构域
蛋白质组
作者
Yancong Zhang,Amrisha Bhosle,Sena Bae,Kelly Eckenrode,Xueying Huang,Jingjing Tang,Danylo Lavrentovich,Lana Awad,Hua Ji,Ya Wang,Xochitl C. Morgan,Bin Li,Andy Krueger,Wendy S. Garrett,Eric A. Franzosa,Curtis Huttenhower
标识
DOI:10.1038/s41587-025-02813-7
摘要
The majority of genes in microbial communities remain uncharacterized. Here we develop a method to infer putative function for microbial proteins at scale by assessing community-wide multiomics data. We predict high-confidence functions for >443,000 protein families (~82.3% previously uncharacterized), including >27,000 protein families with weak homology to known proteins and >6,000 protein families without homology. These were drawn from 1,595 gut metagenomes and 800 metatranscriptomes from the Integrative Human Microbiome Project (HMP2/iHMP). Integrating additional information such as sequence similarity, genomic proximity and domain-domain interactions improves performance of the method. Our method's implementation, FUGAsseM, is generalizable and predicts protein function in both well-studied and undercharacterized communities. FUGAsseM achieves similar levels of accuracy in the context of microbial communities when compared to state-of-the-art approaches designed for application to single organisms while simultaneously providing much greater breadth of coverage. This initial study expands the functional landscape of the human gut microbiome and allows for exploration of microbial proteins in undercharacterized communities.
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