Codeine dysregulates ribosome biogenesis in Escherichia coli with DNA double-strand breaks to chart path to new classes of antibiotics

Vincent Amarh, Benaiah Annertey Abbey, Samuel Akwasi Acheampong, Michael Acheampong Debrah, Gwendolyn Nita Amarquaye, Patrick Kobina Arthur
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Abstract

Aim: A bacterial genetics-guided approach was utilized for the discovery of new compounds affecting bacterial genome stability. Materials & methods: Fungal extracts and fractions were tested for genome instability-mediated antibacterial activity. Interaction assays and RT-qPCR were used to identify compounds that boost the activity of sub-minimum inhibitory concentration streptomycin and obtain insights on the molecular mechanisms of the primary hit compound, respectively. Results: Several extracts and fractions caused bacterial genome instability. Codeine, in synergy with streptomycin, regulates double-strand break (DSB) repair and causes bacterial ribosome dysfunction in the absence of DSBs, and dysregulation of ribosome biogenesis in a DSB-dependent manner. Conclusion: This study demonstrates a potential viable strategy that we are exploring for the discovery of new chemical entities with activities against Escherichia coli and other bacterial pathogens.
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可待因在大肠杆菌DNA双链断裂中失调核糖体的生物发生,为开发新型抗生素指明了道路
目的:利用细菌遗传学指导方法发现影响细菌基因组稳定性的新化合物。材料,方法:对真菌提取物和组分进行基因组不稳定性介导的抗菌活性检测。利用相互作用分析和RT-qPCR分别鉴定了提高亚最低抑制浓度链霉素活性的化合物,并对主要命中化合物的分子机制进行了深入研究。结果:几种提取物和馏分引起细菌基因组不稳定。可待因与链霉素协同作用,调节双链断裂(DSB)修复,在DSB缺失的情况下导致细菌核糖体功能障碍,并以DSB依赖的方式导致核糖体生物发生失调。结论:本研究显示了一种潜在的可行策略,我们正在探索发现具有抗大肠杆菌和其他细菌病原体活性的新化学实体。
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