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等离子体微芯片结构对蟾蜍生理学信号的热等离子体效应。

Thermoplasmonic effect onto Toad physiology signals by plasmonic microchip structure.

机构信息

Magneto-Plasmonic Lab, Laser and Plasma Research Institute, Shahid Beheshti University, Tehran, Iran.

Plasma Physics Research Center, Science and Research Branch, Islamic Azad University, Tehran, Iran.

出版信息

Sci Rep. 2021 Aug 26;11(1):17287. doi: 10.1038/s41598-021-96640-w.

Abstract

Cardiovascular diseases are considered as the leading cause of death and almost 80% of deaths from this disease are developed in poor and less developed countries where early detection facilities are less available, along with overlooking the importance of screening. In other words, real-time monitoring of the physiological signals using flexible and wearable biosensors plays an important role in human life style. Thus, the present study aims to propose two dimensional flexible and wearable gold covered plasmonic samples as a physiological signal recorder, in which chips with nano array of resonant nanowire patterns performing in an integrated platform of plasmonic devices. The produced surface plasmon waves in our main chip were paired with an electric wave from the heart pulse and it use for recording and detecting the heartbeat of a toad with high accuracy. This measurement was performed in normal state and under external laser heating process to check the ability of signal recording and also thermoplasmonic effect onto the toad's heart signal. Our results show that our sensor was enough sensitive for detection while raising the body temperature of the toad and changing its heart rate as flatting T and P waves by thermoplasmonic effect.

摘要

心血管疾病被认为是主要的死亡原因,几乎 80%的此类疾病死亡发生在贫穷和欠发达国家,这些国家早期检测设施较少,同时也忽略了筛查的重要性。换句话说,使用灵活可穿戴的生物传感器对生理信号进行实时监测,在人类生活方式中起着重要作用。因此,本研究旨在提出二维灵活可穿戴的镀金等离子体样本作为生理信号记录器,其中带有共振纳米线图案的纳米阵列芯片在等离子体器件的集成平台上运行。我们主要芯片中产生的表面等离子体波与来自心脏脉冲的电波配对,用于以高精度记录和检测蟾蜍的心跳。这项测量是在正常状态和外部激光加热过程下进行的,以检查信号记录的能力以及热等离子体效应对蟾蜍心脏信号的影响。我们的结果表明,当提高蟾蜍的体温并通过热等离子体效应使其心率变平时,我们的传感器对检测非常敏感,T 和 P 波变平。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/023c/8390756/bcba1eff95b7/41598_2021_96640_Fig1_HTML.jpg

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