Miniature Acoustic Resonator for Enhanced Lab-on-a-Chip Electroanalysis

Xiaohe Wang, Pengfei Niu, Lei Zhao, Yuan Ning, Sheng Sun, Menglun Zhang, W. Pang
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引用次数: 1

Abstract

In lab-on-a-chip electroanalysis, the mass transfer of electroactive species towards the electrode surface limits the detection performance due to the difficulty in applying external convection. In this study, we proposed to integrate miniature acoustic resonator, fabricated by microelectrochemical system, within on-chip electroanalytical platform to improve electrochemical process. Gold film electrochemical sensor chip and acoustic resonator were assembled face-to-face with a polydimethylsiloxane chamber in between. Cyclic voltammetric (CV) responses of ferrocenemethanol were tested under actuation of miniature acoustic resonator at various powers. Resonator’s actuation results in sigmoidal CV curves and the diffusion limited current increases with the rise of applied power on resonator. The advantages of miniature acoustic resonator, including submillimeter small size, mass fabricability, low cost, low energy consumption, as well as outstanding performance towards enhancing electrochemical process, will strongly contribute to the development of highly-sensitive compact sono-electroanalytical devices.
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用于增强芯片实验室电分析的微型声学谐振器
在芯片实验室电分析中,由于难以施加外部对流,电活性物质向电极表面的传质限制了检测性能。在本研究中,我们提出将微电化学系统制造的微型声谐振器集成在片上电分析平台中,以改善电化学过程。金膜电化学传感器芯片与声学谐振器面对面组装,中间有聚二甲基硅氧烷腔。在不同功率的微型声谐振器驱动下,测试了二茂铁乙醇的循环伏安响应。谐振器的驱动产生s型CV曲线,扩散极限电流随谐振器功率的增大而增大。微型声谐振器具有亚毫米级小尺寸、可批量制造、低成本、低能耗以及在增强电化学过程方面的突出性能等优点,将有力地促进高灵敏度小型化声电分析器件的发展。
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