Mechanism and nanotechnological-based therapeutics for tolerance and resistance of bacterial biofilms.

IF 6.1 1区 生物学 Q1 MICROBIOLOGY
Microbiological research Pub Date : 2025-03-01 Epub Date: 2024-11-30 DOI:10.1016/j.micres.2024.127987
Beiliang Miao, Dianhong Wang, Li Yu, Xiangfei Meng, Shiyi Liu, Mengqi Gao, Jiatong Han, Zeliang Chen, Ping Li, Shiwei Liu
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引用次数: 0

Abstract

Bacterial biofilms are one of the most relevant drivers of chronic and recurrent infections and a significant healthcare problem. Biofilms were formed by cross-linking of hydrophobic extracellular polymeric substances (EPS), such as proteins, polysaccharides, and eDNA, which were synthesized by bacteria themselves after adhesion and colonization on biological surfaces. They had the characteristics of dense structure and low drug permeability, leading to tolerance and resistance of biofilms to antibiotics and to host responses. Within a biofilm, microbial cells show increased tolerance to both immune system defense mechanisms and antimicrobials than the same cells in the planktonic state. It is one of the key reasons for the failure of traditional clinical drug to treat infectious diseases. Currently, no drugs are available to attack bacterial biofilms in the clinical setting. The development of novel preventive and therapeutic strategies is urgently needed to allow an effective management of biofilm-associated infections. Based on the properties of nanomaterials and biocompatibility, nanotechnology had the advantages of specific targeting, intelligent delivery and low toxicity, which could realize efficient intervention and precise treatment of biofilm-associated infections. In this paper, the mechanisms of bacterial biofilm resistance to antibiotics and host response tolerance were elaborated. Meanwhile, This paper highlighted multiple strategies of biofilms eradication based on nanotechnology. Nanotechnology can interfere with biofilm formation by destroying mature biofilm, modulating biofilm heterogeneity, inhibiting bacterial metabolism, playing antimicrobial properties, activating immunity and enhancing biofilm penetration, which is an important new anti-biofilm preparation. In addition, we presented the key challenges still faced by nanotechnology in combating bacterial biofilm infections. Utilization of nanotechnology safely and effectively should be further strengthened to confirm the safety aspects of their clinical application.

细菌生物膜耐受和耐药的机制和基于纳米技术的治疗。
细菌生物膜是慢性和复发性感染的最相关驱动因素之一,也是一个重要的医疗保健问题。生物膜是由细菌自身合成的疏水性细胞外聚合物(EPS)如蛋白质、多糖、eDNA等在生物表面粘附定植后交联形成的。它们具有致密结构和低药物渗透性的特点,导致生物膜对抗生素和宿主反应的耐受性和耐药性。在生物膜内,微生物细胞对免疫系统防御机制和抗菌剂的耐受性比浮游状态下的相同细胞更强。这是传统临床药物治疗感染性疾病失败的主要原因之一。目前,在临床环境中没有药物可用于攻击细菌生物膜。迫切需要开发新的预防和治疗策略,以便有效地管理生物膜相关感染。基于纳米材料的特性和生物相容性,纳米技术具有特异性靶向、智能递送和低毒性等优势,可实现对生物膜相关性感染的高效干预和精准治疗。本文就细菌生物膜对抗生素的耐药机制和宿主反应耐受进行了阐述。同时,重点介绍了基于纳米技术的多种生物膜清除策略。纳米技术可以通过破坏成熟的生物膜、调节生物膜的非均质性、抑制细菌代谢、发挥抗菌性能、激活免疫和增强生物膜渗透等方式干扰生物膜的形成,是一种重要的新型抗生物膜制剂。此外,我们提出了纳米技术在对抗细菌生物膜感染方面仍然面临的关键挑战。应进一步加强安全有效地利用纳米技术,以确认其临床应用的安全性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Microbiological research
Microbiological research 生物-微生物学
CiteScore
10.90
自引率
6.00%
发文量
249
审稿时长
29 days
期刊介绍: Microbiological Research is devoted to publishing reports on prokaryotic and eukaryotic microorganisms such as yeasts, fungi, bacteria, archaea, and protozoa. Research on interactions between pathogenic microorganisms and their environment or hosts are also covered.
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