一种用于高通量单实体分析的超低噪声放大器阵列系统

IF 3.1 3区 化学 Q2 CHEMISTRY, PHYSICAL
Cheng-Bing Zhong, Hui Ma, Jia-Jun Wang, Lin-Lin Zhang, Yi-Lun Ying, Rong Wang, Yong-Jing Wan and Yi-Tao Long
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引用次数: 3

摘要

电化学测量在单一实体水平提供超灵敏的工具,精确诊断和基本的生物和化学过程的理解。通过解码电流特征,单一实体电化学提供了关于电荷、大小、形状、催化性能和成分的丰富信息。单实体电化学的精度高度依赖于先进的仪器,以实现亚皮安级的安培分辨率和亚微秒级的时间分辨率。目前,并联放大器实现低噪声和高带宽的单实体电化学测量仍然是一个挑战。在此,我们开发了一种低噪声的四通道电化学仪器,该仪器在电路板中集成了Au电极阵列和放大器。利用该放大器阵列,我们实现了高带宽(>100 kHz)的电化学测量。进一步的实际实验证明了该放大器阵列系统在动态碰撞过程中既能从气溶素纳米孔单分子检测中获得瞬态信号,也能从单铂纳米颗粒催化中获得瞬态信号。与适当的微流体阵列系统配对,我们的仪器将为单实体传感提供非常高通量的功能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

An ultra-low noise amplifier array system for high throughput single entity analysis†

An ultra-low noise amplifier array system for high throughput single entity analysis†

Electrochemical measurements at the single entity level provide ultra-sensitive tools for the precise diagnosis and understanding of basic biological and chemical processes. By decoding current signatures, single-entity electrochemistry provides abundant information on charges, sizes, shapes, catalytic performances and compositions. The accuracy of single-entity electrochemistry highly relies on advanced instrumentation to achieve the amperometric resolution at the sub-picoampere level and the temporal resolution at the sub-microsecond level. Currently, it is still a challenge for paralleling amplifiers to allow low-noise and high bandwidth single-entity electrochemical measurements. Herein, we developed a low-noise four-channel electrochemical instrumentation that integrates an Au electrode array with amplifiers in the circuit board. With this amplifier array, we achieved a high bandwidth (>100 kHz) electrochemical measurement. The further practical experiments proved the capability of this amplifier array system in acquiring transient signals from both single-molecule detection with an aerolysin nanopore and single Pt nanoparticle catalysis during the dynamic collision process. Paired with appropriate microfluidic array systems, our instrumentation will enable an extraordinarily high-throughput feature for single-entity sensing.

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来源期刊
Faraday Discussions
Faraday Discussions 化学-物理化学
自引率
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发文量
259
期刊介绍: Discussion summary and research papers from discussion meetings that focus on rapidly developing areas of physical chemistry and its interfaces
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