Simulations of silicon nanowire sensor and an integrated smart bio-nano sensor

K. Chakravarthy, P. S. Brahmanandam, D. M. Potukuchi, G. A. Kumar, N. S. Rao
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Abstract

Background:Simulation-based nano biosensors have been introduced in recent times that will provide a model for the researchers to verify various critical functions of them, which could effectively save time, money, and effort.Materials and Methods:In this study, we have performed simulations of a silicon nanowire (Si-NW) biosensor, and its various parameters were evaluated. This silicon sensor was designed using the BiosensorLab tool, a simulator from the nanohub website. This paper also presentedan Integrated Smart Bio-nano Sensor. The motivation behind this smart sensor was that an incident happened in one of the southern states of India, in the year 2020; the leakage of styrene gas (C8H8) from the Polymers industry caused 12 deaths and several people hospitalized. Most people died after they inhaled styrene gas because they thought the pungent smell (of styrene gas) was also part of their kitchen’s emissions. This incident prompted us to propose an Integrated Smart Bio-nano Sensor. Results:The proposed sensor was capable of classifying the origin of sources of emissions dynamically (smart), even under lower concentrations of gas levels (25 ppm) and could alert the habitants in case of untoward danger. Conclusions:After verifying settling time vs. analyte concentration, the density of captured target molecules concentration with time vs. time, and the signal-to-noise ratio (SNR) of the biosensor in the presence of parasitic molecules vs. receptor density, it was concluded that these three parameters have helped in identifying the characteristics of the proposed bio-nano sensor.
硅纳米线传感器与集成智能生物纳米传感器的仿真研究
背景:近年来,基于仿真的纳米生物传感器被引入,为研究人员提供了一个模型来验证其各种关键功能,这可以有效地节省时间、金钱和精力。材料和方法:在本研究中,我们模拟了硅纳米线(Si-NW)生物传感器,并对其各种参数进行了评估。这种硅传感器是用nanohub网站上的模拟器BiosensorLab工具设计的。本文还介绍了一种集成智能生物纳米传感器。这个智能传感器背后的动机是,在2020年,印度南部的一个邦发生了一起事件;聚合物工业的苯乙烯气体(C8H8)泄漏造成12人死亡,数人住院。大多数人在吸入苯乙烯气体后死亡,因为他们认为苯乙烯气体的刺鼻气味也是他们厨房排放物的一部分。这一事件促使我们提出了集成智能生物纳米传感器。结果:所提出的传感器能够动态分类排放源的来源(智能),即使在较低的气体浓度水平(25ppm)下,也可以在发生不幸危险时提醒居民。结论:在验证了沉淀时间与分析物浓度、捕获目标分子浓度随时间的变化、寄生分子存在时生物传感器的信噪比(SNR)与受体密度后,得出结论,这三个参数有助于识别所提出的生物纳米传感器的特性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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