Dai Jing, Hamon Morgan, Jambovane Sachin
Department of Electrical and Computer Engineering, Texas A&M University, College Station, TX 77843, USA.
Renal Regeneration Laboratory, VAGLAHS at Sepulveda, North Hills, CA 91343, USA.
Bioengineering (Basel). 2016 Oct 9;3(4):25. doi: 10.3390/bioengineering3040025.
The recent emergence of antimicrobial resistance has become a major concern for worldwide policy makers as very few new antibiotics have been developed in the last twenty-five years. To prevent the death of millions of people worldwide, there is an urgent need for a cheap, fast and accurate set of tools and techniques that can help to discover and develop new antimicrobial drugs. In the past decade, microfluidic platforms have emerged as potential systems for conducting pharmacological studies. Recent studies have demonstrated that microfluidic platforms can perform rapid antibiotic susceptibility tests to evaluate antimicrobial drugs' efficacy. In addition, the development of cell-on-a-chip and organ-on-a-chip platforms have enabled the early drug testing, providing more accurate insights into conventional cell cultures on the drug pharmacokinetics and toxicity, at the early and cheaper stage of drug development, i.e., prior to animal and human testing. In this review, we focus on the recent developments of microfluidic platforms for rapid antibiotics susceptibility testing, investigating bacterial persistence and non-growing but metabolically active (NGMA) bacteria, evaluating antibiotic effectiveness on biofilms and combinatorial effect of antibiotics, as well as microfluidic platforms that can be used for in vitro antibiotic toxicity testing.
近年来,抗生素耐药性问题的出现已成为全球政策制定者的主要担忧,因为在过去二十五年里几乎没有开发出新型抗生素。为防止全球数百万人死亡,迫切需要一套廉价、快速且准确的工具和技术,以帮助发现和开发新型抗菌药物。在过去十年中,微流控平台已成为进行药理学研究的潜在系统。最近的研究表明,微流控平台可以进行快速抗生素敏感性测试,以评估抗菌药物的疗效。此外,芯片上细胞和芯片上器官平台的发展使得早期药物测试成为可能,在药物开发的早期且成本较低阶段(即在动物和人体测试之前),能比传统细胞培养更准确地洞察药物的药代动力学和毒性。在本综述中,我们重点关注微流控平台在快速抗生素敏感性测试、研究细菌持留性和非生长但代谢活跃(NGMA)细菌、评估抗生素对生物膜的有效性和抗生素的联合作用以及可用于体外抗生素毒性测试方面的最新进展。