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Cited 14 time in webofscience Cited 13 time in scopus
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Direct and Binder-Free MXene-Assisted Cobalt Manganese Phosphate Electrode Fabrication on Carbon Cloth by Electrosynthesis for Efficient Supercapacitorsopen access

Authors
Hussain, SajjadKatkar, Pranav K.Vikraman, DhanasekaranSheikh, Zulfqar AliNazir, GhazanfarBatoo, Khalid MujasamKim, Deok-KeeKim, Hyun-SeokJung, Jongwan
Issue Date
Oct-2023
Publisher
John Wiley & Sons Ltd
Keywords
Carbon; Carbon Films; Cobalt Compounds; Electrodes; Film Preparation; Hybrid Materials; Manganese Compounds; Polymer Films; Thin Films; A-carbon; Active Material; Binder Free; Carbon Cloths; Electrode Fabrication; Hybrid Supercapacitors; Hybrid Thin Film; Low-costs; Manganese Phosphate; Thin-films; Supercapacitor
Citation
International Journal of Energy Research, v.2023, pp 1 - 17
Pages
17
Indexed
SCIE
SCOPUS
Journal Title
International Journal of Energy Research
Volume
2023
Start Page
1
End Page
17
URI
https://scholarworks.dongguk.edu/handle/sw.dongguk/20442
DOI
10.1155/2023/6653784
ISSN
0363-907X
1099-114X
Abstract
In this work, MXene-assisted cobalt manganese phosphate (MXene-CMP) thin films with various Co/Mn compositions were prepared on a carbon cloth (CC) substrate via an easy and efficient low-cost electrodeposition route. MXene-CMP thin films were further used as polymer-free active materials for hybrid supercapacitors. The structural, compositional, and surface properties of the prepared MXene-CMP hybrid thin films were characterized using the latest analytical methods. The H-3 electrode exhibited enhanced specific capacitance (840 F center dot g-1 at 2 A center dot g-1) with exceptional robust performance. Additionally, a symmetric H-3 MXene-CMP supercapacitor device also demonstrated a high energy density of 48 Wh center dot kg-1 at 1.5 kW center dot kg-1 power density and holds better cyclability (93% of its initial value after 5000 cycles). Finally, this work explored the strong potential of MXene-attached bimetallic phosphates for solving the electrochemical shortcomings of energy storage devices.
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