Raza Sada, Matuła Kinga, Karoń Sylwia, Paczesny Jan
Institute of Physical Chemistry, Polish Academy of Sciences, Kasprzaka 44/52, 01-224 Warsaw, Poland.
Antibiotics (Basel). 2021 Apr 13;10(4):435. doi: 10.3390/antibiotics10040435.
Antimicrobial resistance is a significant threat to human health worldwide, forcing scientists to explore non-traditional antibacterial agents to support rapid interventions and combat the emergence and spread of drug resistant bacteria. Many new antibiotic-free approaches are being developed while the old ones are being revised, resulting in creating unique solutions that arise at the interface of physics, nanotechnology, and microbiology. Specifically, physical factors (e.g., pressure, temperature, UV light) are increasingly used for industrial sterilization. Nanoparticles (unmodified or in combination with toxic compounds) are also applied to circumvent in vivo drug resistance mechanisms in bacteria. Recently, bacteriophage-based treatments are also gaining momentum due to their high bactericidal activity and specificity. Although the number of novel approaches for tackling the antimicrobial resistance crisis is snowballing, it is still unclear if any proposed solutions would provide a long-term remedy. This review aims to provide a detailed overview of how bacteria acquire resistance against these non-antibiotic factors. We also discuss innate bacterial defense systems and how bacteriophages have evolved to tackle them.
抗菌耐药性是全球人类健康面临的重大威胁,迫使科学家探索非传统抗菌剂,以支持快速干预措施,并对抗耐药细菌的出现和传播。在对旧方法进行修订的同时,许多新的无抗生素方法也在不断开发,从而产生了在物理学、纳米技术和微生物学交叉领域出现的独特解决方案。具体而言,物理因素(如压力、温度、紫外线)越来越多地用于工业灭菌。纳米颗粒(未改性或与有毒化合物结合)也被用于规避细菌体内的耐药机制。最近,基于噬菌体的治疗方法也因其高杀菌活性和特异性而越来越受到关注。尽管应对抗菌耐药性危机的新方法数量正在迅速增加,但仍不清楚任何提议的解决方案是否能提供长期的补救措施。本综述旨在详细概述细菌如何获得对这些非抗生素因素的耐药性。我们还将讨论细菌的固有防御系统,以及噬菌体如何进化以应对这些系统。