吞吐量
病菌
紫外线
高通量筛选
金黄色葡萄球菌
效价
计算生物学
计算机科学
生物
光电子学
生物信息学
材料科学
微生物学
遗传学
电信
细菌
抗体
无线
作者
Yundi Yin,Guifen Xiang,Yun-long Pan,Liu He,Haixia Xu,Wenhua Wei,Ling Li,Zhong Liu
标识
DOI:10.1016/j.scitotenv.2024.174803
摘要
Effective pathogen inactivation is highly desired in public health but limited by existing methods each capable of assessing pathogen inactivation effectiveness (PIE) only in a specific condition. We therefore developed a novel method maxPIE designed to identify maximal PIEs across inactivation conditions by leveraging the power of massive array technologies. maxPIE implements a three-step algorithm to quickly identify maximal PIEs of inactivation treatments: (1) dilute pathogens into different initial titers each stored in an array well, (2) submit one sorted array to one treatment, (3) scan the treated array to find the maximum. maxPIE outperformed the conventional methods in (a) inactivating S. aureus using ultraviolet light of different wavelengths with different durations; (b) antibiotic treatment of S. aureus, E. coli, and multidrug-resistant E. coli; (c) inactivating S. aureus in plasma using ultraviolet light in different wavelengths with and without riboflavin. maxPIE was easy to understand and interpret and was robust in situations where conventional PIE methods would suffer. Hence, maxPIE can serve as an innovative and high throughput approach that can be widely used to enhance pathogen inactivation practices.
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