Overview on bacterial resistance and nanoparticles to overcome bacterial resistance

Y. Abo-Zeid, A. Amer, B. El-Houssieny, M. Mahmoud, W. Sakran
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引用次数: 6

Abstract

Microbial infections have been the leading cause of death throughout history. This was changed when antibiotics were discovered, causing an increase in life expectancy from 48 years to 72 years. However, this golden era might end very soon. Bacteria have evolved resistance against antibiotics using different pathways. Therefore, restrictive policies about using antibiotics should be implemented by the healthcare system to prevent the further spread of bacterial resistance. However, these policies might not be enough without discovering or synthesizing new antibiotics. Antibiotics synthesis or discovery is a lengthy, tedious multistage process. Moreover, the development of bacterial resistance against any newly developed antibiotics takes around 10 years. Therefore, there is a need to find another strategy to retain the current available antibiotics activity against micro-organisms. Nanotechnology is a cutting-edge science that has been emerged few decades ago, it is concerned with producing fibers or particles in the nanometer scale. In literatures, nanoparticles were shown to improve the drug solubility, bioavailability, modify drug pharmacokinetics, increase drug stability, target drug into certain sites and moreover, were proven to overcome some developed resistance mechanisms against anticancer drug (e.g. Efflux mechanism). Recently, nanotechnology techniques have been applied to combat microbial infections and they were proven to be able to overcome the bacterial developing resistance mechanism.  In this review, we are presenting a historical background of antibiotics and discussing some bacterial developed resistance mechanisms as well as stating different nano-based formulations that were developed and proved to be effectively potentiate the antibiotic activity against some resistant micro-organisms.
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细菌耐药性和纳米颗粒克服细菌耐药性的综述
纵观历史,微生物感染一直是导致死亡的主要原因。抗生素的发现改变了这种情况,人类的预期寿命从48岁增加到72岁。然而,这个黄金时代可能很快就会结束。细菌通过不同的途径进化出对抗生素的耐药性。因此,卫生保健系统应实施限制使用抗生素的政策,以防止细菌耐药性的进一步传播。然而,如果没有发现或合成新的抗生素,这些政策可能是不够的。抗生素的合成或发现是一个漫长而乏味的多阶段过程。此外,细菌对任何新开发的抗生素产生耐药性需要大约10年的时间。因此,有必要找到另一种策略来保持目前可用的抗生素对微生物的活性。纳米技术是几十年前出现的一门前沿科学,它涉及在纳米尺度上生产纤维或颗粒。在文献中,纳米颗粒被证明可以改善药物的溶解度,生物利用度,改变药物的药代动力学,增加药物的稳定性,将药物靶向到特定的部位,并且被证明可以克服一些对抗癌药物的耐药机制(如外排机制)。近年来,纳米技术已被应用于对抗微生物感染,并被证明能够克服细菌产生耐药性的机制。在这篇综述中,我们介绍了抗生素的历史背景,讨论了一些细菌产生耐药性的机制,并说明了不同的纳米基配方,已经开发并证明了有效增强抗生素对一些耐药微生物的活性。
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