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Electrochemical energy storage by nanosized MoO_3/PdO material: Investigation of its structural, optical and electrochemical properties for supercapacitor

机译:通过纳米MOO_3 / PDO材料的电化学能量存储:对超级电容器的结构,光学和电化学性质的研究

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摘要

The lower cost and greener synthesis of metal oxides nanomaterial is highly investigated for efficient electrochemical devices. In this regard, we have synthesized facile MoO3/PdO NPs by sol gel synthesis method using extracted foliar fuel of E. cognata. The phase analysis of MoO3/PdO was carried out by X-ray diffraction whereas nanostructures were observed by electron microscopy-FESEM. The foliar fuel introduced functional groups were revealed by Fourier transform infrared spectroscopy and X-ray photoelectron spectroscopy. The Tauc plot revealed low optical band gap energy of MoO3/PdO to 2.55 eV which could be favorable for its electrochemical properties. Henceforth organic framework derived MoO3/PdO nanomaterial was scrutinized by electrochemical characterizations to evaluate the capacitance, electronic and ionic conducting behavior. The specific capacitance of 127 F/g with low internal resistance of 1.9 51 was observed in the current study, suggesting the moderate supercapacitor potential with efficient diffusion of electrons and ions. Therefore, good electrochemical behavior of MoO3/PdO nanomaterial was revealed, which was further demonstrated by prominent redox behavior via cyclicvoltammetry and galvanostatic charge-discharge.
机译:高效地研究了高效电化学装置的金属氧化物纳米材料的较低成本和更环形的合成。在这方面,我们使用E. Cognata的提取叶燃料,通过溶胶凝胶合成方法合成了Bacile MOO3 / PDO NPS。 MOO3 / PDO的相分析由X射线衍射进行,而电子显微镜序列观察纳米结构。叶面燃料引入的官能团被傅里叶变换红外光谱和X射线光电子能谱揭示。 Tauc绘图显示MOO3 / PDO的低光带间隙能量至2.55eV,这可能有利于其电化学性质。此后,通过电化学表征仔细仔细仔细仔细仔细仔细仔细仔细来仔细来评估电容,电子和离子传导行为。在目前的研究中观察到127f / g具有低12751的特定电容,表明具有高效扩散电子和离子的中等超级电容势。因此,揭示了MOO3 / PDO纳米材料的良好电化学行为,通过环状滤压和电压电荷放电进一步证明了突出的氧化还原行为。

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