生物
微生物生态学
生化工程
基因组
生态生理学
分离(微生物学)
基因组学
微生物种群生物学
生物技术
计算生物学
环境生物技术
生态学
基因组
细菌
微生物学
工程类
植物
遗传学
基因
光合作用
作者
Nimaichand Salam,Wen-Dong Xian,Mipeshwaree Devi Asem,Min Xiao,Wenjun Li
标识
DOI:10.1007/s42995-020-00064-w
摘要
Earth is dominated by a myriad of microbial communities, but the majority fails to grow under in situ laboratory conditions. The basic cause of unculturability is that bacteria dominantly occur as biofilms in natural environments. Earlier improvements in the culture techniques are mostly done by optimizing media components. However, with technological advancement particularly in the field of genome sequencing and cell imagining techniques, new tools have become available to understand the ecophysiology of microbial communities. Hence, it becomes easier to mimic environmental conditions in the culture plate. Other methods include co-culturing, emendation of growth factors, and cultivation after physical cell sorting. Most recently, techniques have been proposed for bacterial cultivation by employing genomic data to understand either microbial interactions (network-directed targeted bacterial isolation) or ecosystem engineering (reverse genomics). Hopefully, these techniques may be applied to almost all environmental samples, and help fill the gaps between the cultured and uncultured microbial communities.
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