Investigating the Dual Synergistic Amalgamation of CeO2@WO3/GO Electrodes for Supercapacitor Application

Author:

Obodo Raphael M.1234,Nsude Hope E.2,Eze Chimezie U.25,Duru Miletus O.5,Ikhioya Imosobomeh L.2,Anosike Joseph N.6,Aniezi Joseph N.1,Omugbe Ekwevugbe1,Mbamara Chinonso1,Elejere Ugochukwu C.27,Usman Muhammad3,Ahmad Ishaq34,Maaza M.48

Affiliation:

1. Department of Physics University of Agriculture and Environmental Sciences Owerri Nigeria

2. Department of Physics and Astronomy University of Nigeria Enugu Nigeria

3. National Center for Physics, Quaid‐i‐Azam University Islamabad Pakistan

4. Nanosciences African Network (NANOAFNET) iThemba LABS‐National Research Foundation Somerset West South Africa

5. Department of Physics Federal University of Technology Owerri Nigeria

6. Department of Pure and Industrial Chemistry University of Nigeria Enugu Nigeria

7. Department of Physics Federal College of Education Enugu Nigeria

8. UNESCO‐UNISA Africa Chair in Nanosciences/Nanotechnology College of Graduate Studies, University of South Africa Pretoria South Africa

Abstract

ABSTRACTScientists and researchers are investigating new energy conversion and storage devices continuously because of the current global hike in energy crisis. In this study, we utilized graphene oxide (GO) and composites of transition metallic oxides (CeO2@WO3) to fabricate electrodes intended for use in supercapacitor electrodes. These electrodes' morphology demonstrates a uniform distribution of sphere and platelet nanoparticles. The XRD measurements for these manufactured electrodes showed a noticeable crystalline character. These electrodes have outstanding electrochemical performance due to their relatively low bandgap energies. The electrochemical tests demonstrated the exceptional charge storage capabilities of the different electrodes, suggesting that CeO2/GO, WO3/GO, and CeO2@WO3/GO electrodes could be useful electrodes for supercapacitor applications. Numerous electrochemical findings made it abundantly evident that the creation of bimetallic CeO2@WO3/GO composites enhanced the supercapacitive performance and cycle stability of the electrodes.

Funder

Tertiary Education Trust Fund

Publisher

Wiley

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