The Viability of a Non-Flow Capacitive Biosensing Microsystem for Whole Cell Counting

G. Andrews, U. Hilleringmann, T. Joubert
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Abstract

An analysis on the viability of implementing non-flow based capacitive biosensing for bulk counting of whole cancer cells is presented. A mathematical model is implemented based on established research to test the validity of the hypothesis that cells are considered to act like parallel electric connections. A finite element analysis model is also presented to investigate the effect of electrode geometry and cell position on the measured capacitance. The electrical interaction between cells is found not to be strictly parallel and in fact dependent on a host of uncontrollable parameters. Bulk sensing of multiple cells is found to be impractical for a single electrode setup due to the unpredictability of cell location and cell interactions. An array-based implementation is proposed, which allows for the use of current models and data of single-cell analyses to be used.
全细胞计数非流动电容性生物传感微系统的可行性
分析了实现基于非流动的电容生物传感对整个癌细胞进行批量计数的可行性。在已有研究的基础上,建立了一个数学模型,以检验细胞被认为是平行电连接的假设的有效性。本文还建立了一个有限元分析模型来研究电极几何形状和电池位置对测量电容的影响。发现细胞之间的电相互作用不是严格平行的,实际上依赖于一系列不可控的参数。由于细胞位置和细胞相互作用的不可预测性,发现单个电极设置对多个细胞的批量传感是不切实际的。提出了一种基于阵列的实现,它允许使用当前的模型和单细胞分析数据。
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