持久性(不连续性)
生物能学
抗菌剂
抗生素耐药性
抗性(生态学)
生物
微生物学
抗生素
细胞生物学
生态学
工程类
岩土工程
线粒体
作者
Bin Li,Sunil Kumar Srivastava,Majid B. Shaikh,G Mereddy,MR Garcia,Aditi Shah,N Ofori-Anyinam,Tingyu Chu,N Cheney,Jason H. Yang
标识
DOI:10.1101/2024.07.12.603336
摘要
Antimicrobial resistance (AMR) is a global health crisis and there is an urgent need to better understand AMR mechanisms. Antibiotic treatment alters several aspects of bacterial physiology, including increased ATP utilization, carbon metabolism, and reactive oxygen species (ROS) formation. However, how the "bioenergetic stress" induced by increased ATP utilization affects treatment outcomes is unknown. Here we utilized a synthetic biology approach to study the direct effects of bioenergetic stress on antibiotic efficacy. We engineered a genetic system that constitutively hydrolyzes ATP or NADH in
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