Preparation of Cu-MOF/Bi2WO6 Binary Composites by the Solvothermal Method: Its Characterization and Application as Supercapacitor Electrode Materials

Energy Storage Pub Date : 2024-10-09 DOI:10.1002/est2.70045
Sneha Tomar, V. K. Singh
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Abstract

In this research, the synthesis of a binary composite was conducted by combining Cu-MOF and Bi2WO6. The resulting composite, denoted as CuBW, was systematically prepared with varying weight percentages: CuBW20, CuBW50, and CuBW80. To assess the properties of the composites, multiple characterization techniques were employed, including FTIR, XRD, FESEM-Elemental Mapping, BET-BJH, TEM, HRTEM-SAED, and XPS. The composites were subjected to electrochemical testing utilizing a three-electrode system, with 3 M KOH serving as the electrolyte. Through the electrochemical study, various parameters were evaluated and subsequently compared to determine any differences or similarities among the different compositions. CuBW80 exhibits superior performance with a specific capacity of 1137 F g−1, specific energy of 11 Wh kg−1, and specific power of 4000 W kg−1 at an operating current density of 0.5 A g−1. In the cyclic stability test, CuBW80 demonstrated superior performance by retaining approximately 83% of its initial specific capacitance over 10000 cycles. This further highlights its resilience and durability, reinforcing its suitability for extended and reliable use in energy storage applications.

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溶热法制备 Cu-MOF/Bi2WO6 二元复合材料:超级电容器电极材料的表征与应用
本研究将 Cu-MOF 和 Bi2WO6 结合在一起,合成了一种二元复合材料。系统地制备了不同重量百分比的复合材料,即 CuBW:CuBW20、CuBW50 和 CuBW80。为了评估复合材料的性能,采用了多种表征技术,包括傅立叶变换红外光谱、XRD、FESEM 元素图谱、BET-BJH、TEM、HRTEM-SAED 和 XPS。利用三电极系统对复合材料进行了电化学测试,电解液为 3 M KOH。通过电化学研究,对各种参数进行了评估和比较,以确定不同成分之间的异同。CuBW80 表现出卓越的性能,在工作电流密度为 0.5 A g-1 时,比容量为 1137 F g-1,比能量为 11 Wh kg-1,比功率为 4000 W kg-1。在循环稳定性测试中,CuBW80 在 10000 次循环中保持了约 83% 的初始比电容,表现出卓越的性能。这进一步凸显了它的弹性和耐用性,使其更适合在储能应用中长期可靠地使用。
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