化学
分类
微生物
微生物群
单元格排序
细胞
细菌
生物化学
计算机科学
生物信息学
遗传学
生物
程序设计语言
作者
Zhidian Diao,Xiaoyan Jing,Xiaotong Hou,Meng Yu,Ping Zhang,Yongshun Wang,Yuetong Ji,Anle Ge,Xixian Wang,Yuting Liang,Jian Xu,Bo Ma
标识
DOI:10.1021/acs.analchem.4c03213
摘要
The microbiome represents the natural presence of microorganisms, and exploring, understanding, and leveraging its functions will bring about significant breakthroughs in life sciences and applications. Raman-activated cell sorting (RACS) enables the correlation of phenotype and genotype at the single-cell level, offering a solution to the bottleneck in microbial community functional analysis caused by challenges in cultivating diverse microorganisms. However, current labor-intensive manual procedures fall short in catering to the demands of single-cell functional analysis in microbial communities. To address this issue, we developed an artificial intelligence-assisted Raman-activated cell sorting system (AI-RACS) that integrates precise single-cell positioning, automated data collection, optical tweezers capture, and single-cell printing to elevate microbial single-cell RACS from manual to automated, validating the efficacy of the system by isolating aluminum-tolerant microbes from acidic soil microbiota. Leveraging the AI-RACS framework, we sorted 13 strains from red soil samples under near-in situ conditions, with all demonstrating strong aluminum tolerance. AI-RACS efficiently segregates microbial cells from intricate environmental samples, investigating their functional attributes and presenting a novel tool for microbial research and applications.
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