基于聚合物的生物电流体多芯片模块

S. Youn, Young-Hyun Jin, Young‐Ho Cho
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引用次数: 0

摘要

我们提出了一种基于新型聚合物制造工艺的生物电流多芯片模块,该工艺采用超支化聚合物AEO3000的紫外直接图片化。相比。PDMS是目前在生物MEMS器件中应用最广泛的聚合物,具有电极集成和快速制造等优点。我们设计了四个芯片模块,有三个电垫和两个流体I/O端口。我们在模块上集成了微流体混合器和细胞分离器,以表征互连性能和样品操作。在电学和流体特性中,测量到的电接触电阻为0.75±0.44Ω,即。电法压降为8.3kPa,为油管法的39.3%。我们在多芯片模块中通过酵母混合和分离测试,成功地演示了通过互连芯片对生物样品的操作。提出的设备和工艺提供了适用于生物医学分析系统的快速和生物相容性方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Polymer-based bio-electrofluidic multi-chip module
We present a bio-electro fluidic multi-chip module based on the novel polymer fabrication process using UV-direct patterning of hyper-branched polymer, AEO3000. Compared to. PDMS, which is most widely used polymer in bio MEMS devices, the present polymer has advantages of electrode integration and fast fabrication process. We design 4-chip module, having three electrical pads and two fluidic I/O ports. We integrate a microfluidic mixer and a cell separator on the module to characterize the interconnection performance and sample manipulation. In the electrical and fluidic characterization, the measured electrical contact resistance was 0.75±0.44Ω which is. small enough for electrical application, while the pressure drop of 8.3kPa was 39.3% the value of tubing method. We successfully demonstrate bio-sample manipulation through the interconnected chips using yeast mixing and separation test in the multi-chip module. The proposed device and process offers fast and bio-compatible method applicable to biomedical analysis systems.
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