Memsensors with a Crossbar Structure for In-vivo H2O2 Detection

Zejie Yu, Chaojian Hou, Kun Wang, Donglei Chen, Shuideng Wang, Wenqi Zhang, Zhi Qu, Xiaokai Wang, Lixin Dong
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引用次数: 1

Abstract

A molybdenum disulfide $(\mathbf{MoS}_{2})$ based hydrogen peroxide $(\mathbf{H}_{\boldsymbol{2}}\mathbf{O}_{\boldsymbol{2}})$ memsensor (a memory sensor or a sensor with memory) is designed as a passive one oriented to be carried by microrobots, where a local power supply is hardly be available. The sensor has a crossbar configuration and is microfabricated of $\mathbf{Au}/\mathbf{MoS}_{\boldsymbol{2}}/\mathbf{Au}$ with a junction area of 0.25 $\boldsymbol{\mu} \mathbf{m}^{\boldsymbol{2}}$. It functions with physical absorption of oxide ions on the surfaces or between layers and/or chemical oxidation on the edges and defects of $\mathbf{MoS}_{\boldsymbol{2}}$. Due to its nature of irreversible structure, calibration has been done at a lower concentration of $\mathbf{H}_{\boldsymbol{2}}\mathbf{O}_{\boldsymbol{2}}$ and confirmed at a higher one presetting a scenario that the sensor will be carried out by a microrobot being sent to a certain region for sensing $\mathbf{H}_{\boldsymbol{2}}\mathbf{O}_{\boldsymbol{2}}$ with an intermediate concentration and collected back for understanding the information where the microrobot has been staying. Experiments show that the proposed calibration and sensing method has an acceptable resolution in the range of 200 nmol/L to 1200 nmol/L.
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用于体内H2O2检测的横杆结构Memsensors
基于二硫化钼$(\mathbf{MoS}_{2})$的过氧化氢$(\mathbf{H}_{\boldsymbol{2}}\mathbf{O}_{\boldsymbol{2}})$ memsensor(记忆传感器或具有记忆的传感器)被设计为面向微型机器人携带的无源传感器,在那里很难获得本地电源。该传感器具有横杆结构,由$\mathbf{Au}/\mathbf{MoS}_{\boldsymbol{2}}/\mathbf{Au}$微加工而成,结面积为0.25 $\boldsymbol{\mu} \mathbf{m}^{\boldsymbol{2}}$。它的作用是物理吸收表面或层间的氧化离子和/或化学氧化的边缘和缺陷$\mathbf{MoS}_{\boldsymbol{2}}$。由于其不可逆结构的性质,在较低浓度$\mathbf{H}_{\boldsymbol{2}}\mathbf{O}_{\boldsymbol{2}}$下进行校准,并在较高浓度$ mathbf{O}_{\boldsymbol{2}}$下进行校准,预设了一个场景,即传感器将由一个微机器人被发送到某一区域,以感应$\mathbf{H}_{\boldsymbol{2}}}\mathbf{O}_{\boldsymbol{2}}$,并收集回以了解微机器人所停留的信息。实验表明,所提出的校准和传感方法在200 ~ 1200 nmol/L范围内具有可接受的分辨率。
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