Quad Lipid Bilayer Module with 1-GΩ Series Resistors Toward Quantitative Stochastic-Biosensors

Y. Ito, T. Osaki, K. Kamiya, Tetsuya Yamada, N. Miki, S. Takeuchi
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Abstract

This work designs and demonstrates the lipid bilayer-based ultra-sensitive biosensor capable of short-time detection in a quantitative manner, which is achieved by connecting multiple sensor elements in parallel.Artificial cell membranes with functional membrane proteins can form sensitive/selective biosensors. But the sensors suffer lengthy detection time at low concentration of analytes because the sensing mechanism relies on stochastic phenomena.In this work, we connected independent membrane sensors in parallel, where the ionic current through the multiple membranes was monitored by a single detector. With this format, the detection time is shortened based on the number of the array and the sensing can be quantitative. We developed a quad sensor assembling four membranes in parallel, and examined detection time of a single membrane sensor, the quad sensor, and four parallel quad-sensors. 1-GΩ resistor was installed in series with each membrane to avoid overload current caused by membrane rupture. The results showed significant improvement in the detection time and deviation by the parallelization, which promises quantitative monitoring with the stochastic sensor.
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面向定量随机生物传感器的四脂双层模块1-GΩ系列电阻
本工作设计并演示了基于脂质双分子层的超灵敏生物传感器,该传感器能够通过并联多个传感器元件来实现短时间定量检测。具有功能性膜蛋白的人造细胞膜可以形成敏感/选择性的生物传感器。但由于传感器的传感机制依赖于随机现象,在低浓度分析物时,传感器的检测时间较长。在这项工作中,我们并联了独立的膜传感器,其中通过多个膜的离子电流由单个探测器监测。通过这种格式,可以根据阵列的数量缩短检测时间,并且可以定量检测。我们开发了一种由四个平行膜组成的四轴传感器,并对单个膜传感器、四轴传感器和四个平行四轴传感器的检测时间进行了比较。1-GΩ电阻器与各膜串联安装,避免膜破裂产生过载电流。结果表明,并行化大大改善了检测时间和偏差,为随机传感器的定量监测提供了可能。
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