用纳米孔集成微波谐振器检测液体中单个纳米金颗粒

H. S. Pisheh, Arda Secme, H. Uslu, Berk Kucukoglu, M. Hanay
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引用次数: 0

摘要

在这里,我们提出了一种纳米孔集成微波谐振器,用于实时检测单个纳米颗粒。与现有的纳米孔传感器依赖于诸如电阻脉冲传感和电流电压测量等检测技术相比,本发明的共面波导传感器检测金纳米颗粒通过薄膜上的纳米孔。传感器的共振频率约为7千兆赫,由定制的闭环电路跟踪。金纳米粒子通过电动力驱动通过孔:当每个纳米粒子通过孔时,它会引起谐振器共振频率的移动。所述方法不受孔的特定设计的限制,减轻了相对于目标分析物的孔大小和形状的串状条件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Detection of Single Gold Nanoparticle in Liquid With Nanopore-Integrated Microwave Resonators
Here, we propose a nanopore integrated microwave resonator to detect single nanoparticles in real time. In contrast to existing nanopore-sensors relying on detection techniques like resistive pulse sensing, and current-voltage measurements, the presented coplanar-waveguide sensor detects the passage of gold nanoparticles through a nanopore on a thin film membrane. Resonance frequency of the sensor, which is around 7 GHz, is tracked by a custom-built close loop circuitry. Gold nanoparticles are electro kinetically driven through the pore: as each nanoparticle passed the pore, it induces a shift in the resonance frequency of the resonator. The presented method is not limited by the specific design of the pore, alleviating the stringing condition on pore size and shape with respect to the target analyte.
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