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Nano-confined synthesis of highly ordered mesoporous carbon and its performance as electrode material for electrochemical behavior of riboflavin (vitamin B2) and dopamine

机译:纳米限制的有序介孔碳的合成及其作为核黄素(维生素B2)和多巴胺电化学行为的电极材料的性能

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摘要

Highly ordered mesoporous carbon (MC) has been synthesized from sucrose, a non-toxic and costeffective source of carbon. X-ray diffraction, N2 adsorption–desorption isotherm and transmission electron micrograph (TEM) were used to characterize the MC. The XRD patterns show the formation of highly ordered mesoporous structures of SBA15 and mesoporous carbon. The N2 adsorptiondesorption isotherms suggest that the MC exhibits a narrow pore-size distribution with high surface area of 1559 m2/g. The potential application of MC as a novel electrode material was investigated using cyclic voltammetry for riboflavin (vitamin B2) and dopamine. MC-modified glassy carbon electrode (MC/GC) shows increase in peak current compared to GC electrode in potassium ferricyanide which clearly suggest that MC/GC possesses larger electrode area (1.8 fold) compared with bare GC electrode. The electrocatalytic behavior of MC/GC was investigated towards the oxidation of riboflavin (vitamin B2) and dopamine using cyclic voltammetry which show larger oxidation current compared to unmodified electrode and thus MC/GC may have the potential to be used as a chemically modified electrode.
机译:高度有序的介孔碳(MC)是由蔗糖合成的,蔗糖是一种无毒且经济高效的碳源。用X射线衍射,N2吸附-解吸等温线和透射电子显微照片(TEM)表征MC。 XRD图谱显示了SBA15和中孔碳的高度有序的中孔结构的形成。 N2吸附-解吸等温线表明,MC的孔径分布较窄,表面积较大,为1559 m2 / g。使用循环伏安法研究核黄素(维生素B2)和多巴胺对MC作为新型电极材料的潜在应用。在铁氰化钾中,MC修饰的玻碳电极(MC / GC)与GC电极相比,峰值电流增加,这清楚地表明,与裸GC电极相比,MC / GC具有更大的电极面积(1.8倍)。使用循环伏安法研究了MC / GC对核黄素(维生素B2)和多巴胺的氧化的电催化行为,与未修饰的电极相比,MC / GC具有更大的氧化电流,因此MC / GC可能具有用作化学修饰电极的潜力。

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