微生物群
功能(生物学)
生物
细胞生理学
计算生物学
生理学
基因组学
细胞功能
数据科学
基因组
生物信息学
进化生物学
计算机科学
细胞
遗传学
基因
作者
Roland Hatzenpichler,Viola Krukenberg,Rachel L. Spietz,Zackary J. Jay
标识
DOI:10.1038/s41579-020-0323-1
摘要
The function of cells in their native habitat often cannot be reliably predicted from genomic data or from physiology studies of isolates. Traditional experimental approaches to study the function of taxonomically and metabolically diverse microbiomes are limited by their destructive nature, low spatial resolution or low throughput. Recently developed technologies can offer new insights into cellular function in natural and human-made systems and how microorganisms interact with and shape the environments that they inhabit. In this Review, we provide an overview of these next-generation physiology approaches and discuss how the non-destructive analysis of cellular phenotypes, in combination with the separation of the target cells for downstream analyses, provide powerful new, complementary ways to study microbiome function. We anticipate that the widespread application of next-generation physiology approaches will transform the field of microbial ecology and dramatically improve our understanding of how microorganisms function in their native environment. In this Review, Hatzenpichler et al. introduce next-generation physiology, which is a suite of new techniques that enable investigation into the phenotypes of individual cells in a non-destructive manner. Next-generation physiology complements genomics and culturing and provides new insights into microbiome function.
科研通智能强力驱动
Strongly Powered by AbleSci AI