Metal-Organic Framework Derived CeO2 Based Two-Dimensional Layered Nanocomposites for Selective Electrochemical Dopamine Detection

Chengjie Ge, R. Ramachandran, Fei Wang
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引用次数: 1

Abstract

In past decades, nanomaterials have received much attraction in numerous applications. Still now, making and finding a novel nanomaterial is primary and basic research to improve the performance of the existing materials. Recently, Metal-organic frameworks and their derivatives become the hot star for energy and environmental applications owing to controllable structure and large surface area. During this work, we present the preparation of a neoteric CeO2 nanomaterial with two materials siloxene and g-C3N4 from MOF as a sacrificial template by the thermolysis process. Furthermore, we optimize the pyrolysis conditions to obtain higher crystallization of the CeO2 nanomaterials towards the use in electrochemical dopamine detection. Here, we focus on the CeO2 nanomaterial formation with different conditions and optimized the synthesize temperature based on the characterization results. Compared to g-C3N4, siloxene with CeO2 enhances the redox reaction for dopamine detection. The modified CeO2-siloxene electrode showed a low detection limit of 0.292 μΜ and a linear range from 0 to 7.8 μΜ. Our work shows that the CeO2/siloxene electrodes are suitable for application of electrochemical dopamine sensor.
金属-有机框架衍生的基于CeO2的二维层状纳米复合材料用于选择性电化学多巴胺检测
在过去的几十年里,纳米材料在许多应用中受到了广泛的关注。到目前为止,制造和发现一种新的纳米材料是提高现有材料性能的首要和基础研究。近年来,金属有机骨架及其衍生物因其结构可控和比表面积大而成为能源和环境应用的热点。在这项工作中,我们提出了用MOF的两种材料硅氧烷和g-C3N4作为牺牲模板,通过热裂解法制备了一种新型的CeO2纳米材料。此外,我们还优化了热解条件,以获得更高结晶度的CeO2纳米材料,并将其用于电化学多巴胺检测。本文重点研究了不同条件下CeO2纳米材料的形成,并根据表征结果对合成温度进行了优化。与g-C3N4相比,加入CeO2的硅氧烷增强了多巴胺检测的氧化还原反应。修饰后的电极检测限为0.292 μΜ,线性范围为0 ~ 7.8 μΜ。我们的工作表明,CeO2/硅氧烷电极适用于电化学多巴胺传感器的应用。
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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