溶剂热合成MnO2@Zn/Ni-MOF作为高性能超级电容器电极材料

IF 2.4 4区 化学 Q3 CHEMISTRY, PHYSICAL
Ionics Pub Date : 2025-02-08 DOI:10.1007/s11581-025-06124-4
Muhammad Imran, Tousif Hussain, Urooj Shuaib, Farrukh Ehtesham Mubarik, Maryam Tahir, Muhammad Anas Toheed, Ali Hussnain, Imran Shakir
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引用次数: 0

摘要

对满足全球能源需求的追求,以及化石燃料的枯竭和相关的环境问题,导致了超级电容器的发展。在超级电容器的各个组成部分中,电极材料对其性能起着至关重要的作用。双金属金属有机骨架材料(MOF)由于具有比表面积大、多孔结构可调、活性位点丰富、易于合成等优点,作为一种超级电容器电极材料受到了广泛的关注。在MOF中加入过渡金属氧化物可以进一步提高其电化学性能。本文采用溶剂热法合成了MnO2@Zn/Ni-MOF。各种物理和电化学分析技术被用于表征所制备的电极材料。MnO2@Zn/Ni-MOF在2ag−1时的比电容为1537 Fg−1,高于原始Zn/Ni-MOF在2ag−1时的比电容1185 Fg−1。MnO2@Zn/Ni-MOF在经过4000次循环后,在6 Ag−1条件下仍保持89%的原始电容,表明其适合超级电容器应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Solvothermally synthesized MnO2@Zn/Ni-MOF as high-performance supercapacitor electrode material

The pursuit of meeting global energy demands, along with the depletion of fossil fuels and related environmental concerns, has led to the development of supercapacitors. Among various components of supercapacitors, electrode material plays a crucial role in their performance. Bimetallic Metal–Organic Framework (MOF) has attracted the attention of researchers as a supercapacitor electrode material owing to its large surface area, tunable porous structure, rich active sites, and ease of synthesis. Incorporation of transition metal oxides in MOF can result in further amplification of electrochemical performance. Here, we synthesized MnO2@Zn/Ni-MOF using the solvothermal method. Various physical and electrochemical analytical techniques were used for the characterization of fabricated electrode material. The MnO2@Zn/Ni-MOF exhibited a specific capacitance of 1537 Fg−1 at 2 Ag−1, which is higher than that of pristine Zn/Ni-MOF (1185 Fg−1 at 2 Ag−1). MnO2@Zn/Ni-MOF also retained 89% of its original capacitance at 6 Ag−1 after performing 4000 cycles, signifying its appropriateness for supercapacitor application.

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来源期刊
Ionics
Ionics 化学-电化学
CiteScore
5.30
自引率
7.10%
发文量
427
审稿时长
2.2 months
期刊介绍: Ionics is publishing original results in the fields of science and technology of ionic motion. This includes theoretical, experimental and practical work on electrolytes, electrode, ionic/electronic interfaces, ionic transport aspects of corrosion, galvanic cells, e.g. for thermodynamic and kinetic studies, batteries, fuel cells, sensors and electrochromics. Fast solid ionic conductors are presently providing new opportunities in view of several advantages, in addition to conventional liquid electrolytes.
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