一种用于cTnT检测的纳米间隙生物传感器

Hsiao-Ting Hsueh, Po-Han Chen, Chih-Ting Lin
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引用次数: 0

摘要

纳米结构已被设想为提高生物分子传感特性的新因素。在这项工作中,我们提出了一种新型的生物传感器,利用两个电极之间形成的纳米间隙进行生物分子检测。纳米间隙电极提高了近表面电化学电导的灵敏度。为了研究纳米间隙电极的传感特性,我们将不同的导电连接剂(CB2C和PABA)固定在电极之间的纳米间隙表面形成导电层。CB2C和PABA连接剂的电导增量分别为56%和396%。这种电导的提高为cTnT的检测提供了纳米间隙电极的能力,同时,CB2C和PABA的动态检测范围分别为1ng/ml ~ 100ng/ml和10pg/ml ~ 100ng/ml。结果还证明了导电层厚度是影响电导和检测限的关键因素。
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A nano-gap biosensor using nano-patterned conductive molecule for cTnT detection
Nanostructure has been envisioned as a novel factor to enhance biomolecular sensing characteristics. In this work, we propose a novel biosensor by using a nano gap formed between two electrodes for biomolecular detections. The nano-gap electrode increases sensitivity of near-surface electrochemical conductances. To examine the proposed sensing characteristics of the nano-gap electrode, different conductive linkers (CB2C and PABA were immobilized to form a conductive layer on the nano-gap surface between the electrodes. The conductance increment of CB2C and PABA linker was about 56% and 396% respectively. This conductance improvement provides nano-gap electrodes ability for cTnT detection, also, the dynamic detection range of CB2C and PABA is from 1ng/ml to 100ng/ml and from 10pg/ml to 100ng/ml respectively. The results also proved that the thickness of conductive layer is a critical factor in conductance and detection limit.
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