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Phage-Derived Antibacterials: Harnessing the Simplicity Plasticity and Diversity of Phages

机译:噬菌体衍生的抗菌剂:利用噬菌体的简单性可塑性和多样性

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摘要

Despite the successful use of antibacterials, the emergence of multidrug-resistant bacteria has become a serious threat to global healthcare. In this era of antibacterial crisis, bacteriophages (phages) are being explored as an antibacterial treatment option since they possess a number of advantages over conventional antibacterials, especially in terms of specificity and biosafety; phages specifically lyse target bacteria while not affecting normal and/or beneficial bacteria and display little or no toxicity in that they are mainly composed of proteins and nucleic acids, which consequently significantly reduces the time and cost involved in antibacterial development. However, these benefits also create potential issues regarding antibacterial spectra and host immunity; the antibacterial spectra being very narrow when compared to those of chemicals, with the phage materials making it possible to trigger host immune responses, which ultimately disarm antibacterial efficacy upon successive treatments. In addition, phages play a major role in horizontal gene transfer between bacterial populations, which poses serious concerns for the potential of disastrous consequences regarding antibiotic resistance. Fortunately, however, recent advancements in synthetic biology tools and the speedy development of phage genome resources have allowed for research on methods to circumvent the potentially disadvantageous aspects of phages. These novel developments empower research which goes far beyond traditional phage therapy approaches, opening up a new chapter for phage applications with new antibacterial platforms. Herein, we not only highlight the most recent synthetic phage engineering and phage product engineering studies, but also discuss a new proof-of-concept for phage-inspired antibacterial design based on the studies undertaken by our group.
机译:尽管成功使用了抗菌剂,但耐多药细菌的出现已成为对全球医疗保健的严重威胁。在这个抗菌危机的时代,由于噬菌体(噬菌体)相对于常规抗菌剂具有许多优势,尤其是在特异性和生物安全性方面,它们正在被视为一种抗菌治疗选择。噬菌体在不影响正常细菌和/或有益细菌的情况下特异性地裂解靶细菌,并且由于它们主要由蛋白质和核酸组成,因此显示出很少或没有毒性,因此显着减少了抗菌开发的时间和成本。但是,这些好处也带来了有关抗菌谱和宿主免疫力的潜在问题。与化学药品相比,抗菌谱非常狭窄,噬菌体材料可以触发宿主免疫反应,最终在连续治疗后解除了抗菌功效。另外,噬菌体在细菌种群之间的水平基因转移中起主要作用,这严重引起了关于抗生素抗性的灾难性后果的可能性。但是,幸运的是,合成生物学工具的最新发展和噬菌体基因组资源的迅速发展,使得人们可以研究各种方法来规避噬菌体的潜在不利方面。这些新颖的发展为研究提供了超越传统噬菌体治疗方法的能力,为新的抗菌平台为噬菌体应用开辟了新篇章。在此,我们不仅重点介绍了最新的合成噬菌体工程和噬菌体产品工程研究,还根据我们小组进行的研究,讨论了针对噬菌体启发的抗菌设计的新概念验证。

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