A High Pressure Nanofluidic Micro-Pump Based on H2O Electrolysis

Fupeng Liang, Y. Qiao, Mengqin Duan, Na Lu, Jing Tu, Zuhong Lu
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Abstract

Nanofluidic devices have many potential applications in biomedical field. One of the technical barriers of nanofluidics is to drive nanofluids in nanochannels with super-high hydraulic resistance (MPa scale) and super-small volume (fL scale). Electric field driving method (eg. electroosmotic flow) is commonly used in nanofluidics, since the conventional pumps applied in microfluidics are limited by their low pressure and low control precision. However, the electric field driving method is not suitable for all kinds of the nanofluids, which could affect the biochemical reactions, and lead to electrolytic reactions. We have developed a new type of high pressure nanofluidic micro-pump based on electrolysis. The pump system consists of electrolytic chamber, pressure sensor, control circuit, electrolytic electrodes and sample chamber that connects to nanofluidic chip. In our nanofluidic micro-pump system, high pressure gas generated from the electrolytic chamber pushes the liquid sample into the nanochannel, and the driving pressure to the fluidic sample can stably reach to 20MPa. Our high pressure micro-pump is suitable for both microfluidic and nanofluidic applications due to its very high output pressure, high control precision, fast response and wide output range.
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基于水电解的高压纳米流体微泵
纳米流体器件在生物医学领域具有广泛的应用前景。在超高水力阻力(MPa级)和超小体积(fL级)的纳米通道中驱动纳米流体是纳米流体发展的技术障碍之一。电场驱动方法(如:传统的微流体泵由于压力低、控制精度低而受到限制,因此在纳米流体中通常采用电渗透泵。然而,电场驱动方法并不适用于所有类型的纳米流体,这可能会影响生物化学反应,并导致电解反应。我们开发了一种基于电解的新型高压纳米流体微泵。该泵系统由电解室、压力传感器、控制电路、电解电极和连接到纳米流控芯片的样品室组成。在我们的纳米流体微泵系统中,电解室产生的高压气体将液体样品推入纳米通道,对流体样品的驱动压力可以稳定地达到20MPa。我们的高压微型泵具有极高的输出压力、高控制精度、快速响应和宽输出范围,适用于微流体和纳米流体应用。
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