微磁分离处理菌血症的工艺优化

RAN Pub Date : 2017-12-01 DOI:10.11159/ijtan.2017.004
Stephen Neil Petty Valenzuela, Sinead E Miller, Charleson S. Bell, T. Giorgio
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引用次数: 1

摘要

菌血症和相关综合征,如败血症和感染性休克,正在成为日益严重的健康问题,这在很大程度上是由于抗生素耐药性的上升和快速诊断方面未遇到的挑战。体外细菌分离方法目前正在开发中,以识别病原体和减少细菌负荷。以前的研究已经建立了模型来了解菌血症的进展。本研究将基于生理的药代动力学模型与基于物理的磁分离模型相结合,为微磁分离装置的设计提供信息。该模型表明,小尺寸的微流体装置对于大型生命系统中的菌血症治疗不够有效,需要进一步研究高通量体外血液净化装置。
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Optimization of Micromagnetic Separation for Bacteremia Treatment
Bacteremia and related syndromes such as sepsis and septic shock are becoming an increasing health concern due in large part to the rise of antibiotic resistance and unmet challenges for rapid diagnosis. Extracorporeal bacterial separation methods are currently under development to identify pathogens and reduce bacterial load. Previous studies have generated models to understand the progression of bacteremia. Here, a physiologically-based pharmacokinetic model was integrated with a physically-based magnetic separation model to inform the design of a micromagnetic separation device. This modeling demonstrates that smallfootprint microfluidic devices are not efficient enough for bacteremia treatment in large living systems and further research into high-throughput extracorporeal blood-cleansing devices is required.
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