基于流动的微流体生物芯片的废物感知流体体积分配

Alexander Schneider, P. Pop, J. Madsen
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引用次数: 3

摘要

微流控生物芯片正在取代传统的生化分析仪,将必要的功能集成在芯片上。我们对基于流动的微流体生物芯片(FBMB)感兴趣,其中使用集成微阀控制连续的液体流动。使用微阀和通道,可以构建更复杂的流体单元(FUs),如开关,微泵,混合器和分离器。当在FBMB上运行生化应用程序时,流体体积从输入储层中分配给FUs使用。考虑到生化应用和生物芯片,我们感兴趣的是确定应用中每个操作的流体体积分配,从而满足FUs体积要求,同时避免过流和下流,并最大限度地减少所用流体的总量。我们提出了一种求解该流体分配问题的算法。与以前的工作相比,我们的方法能够通过优化流体分配和再利用流体废物来最大限度地减少流体消耗。由于算法的低复杂度,流体需求也可以在运行时计算错误恢复或静态未知情况。
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Waste-aware fluid volume assignment for flow-based microfluidic biochips
Microfluidic biochips are replacing the conventional biochemical analysers integrating the necessary functions onchip. We are interested in Flow-Based Microfluidic Biochips (FBMB), where a continuous flow of liquid is manipulated using integrated microvalves. Using microvalves and channels, more complex Fluidic Units (FUs) such as switches, micropumps, mixers and separators can be constructed. When running a biochemical application on a FBMB, fluid volumes are dispensed from input reservoirs and used by the FUs. Given a biochemical application and a biochip, we are interested in determining the fluid volume assignment for each operation of the application, such that the FUs volume requirements are satisfied, while over- and underflow are avoided and the total volume of fluid used is minimized. We propose an algorithm for this fluid assignment problem. Compared to previous work, our method is able to minimize the fluid consumption through optimal fluid assignment and reuse of fluid waste. Due to the algorithm's low complexity, fluid requirements can also be calculated during runtime for error recovery or statically unknown cases.
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