Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor

Ni(OH)(2)/reduced graphene oxide (RGO) core-shell hybrid nanostructure has been synthesized employing a facile and inexpensive chemical-precipitation technique. The synthesized core-shell nanostructures, comprising Ni(OH)(2) at the core and RGO as shell, were then coated on commercially available Ni...

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Main Authors: Khan, Yusuf, Urade, Akanksha R., De Adhikari, Amrita, Maity, Palash Chandra, Ramesh, Kasi, Bashir, Shahid, Lahiri, Indranil, Ramesh, Subramaniam
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Published: Taylor & Francis 2023
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Online Access:http://eprints.um.edu.my/39530/
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spelling my.um.eprints.395302024-06-14T07:35:28Z http://eprints.um.edu.my/39530/ Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor Khan, Yusuf Urade, Akanksha R. De Adhikari, Amrita Maity, Palash Chandra Ramesh, Kasi Bashir, Shahid Lahiri, Indranil Ramesh, Subramaniam QC Physics Ni(OH)(2)/reduced graphene oxide (RGO) core-shell hybrid nanostructure has been synthesized employing a facile and inexpensive chemical-precipitation technique. The synthesized core-shell nanostructures, comprising Ni(OH)(2) at the core and RGO as shell, were then coated on commercially available Ni foam used as an electrode. Prepared Ni(OH)(2)/RGO nanospheres were analyzed by Raman analysis for structural information. In the Raman spectrum, the peaks at 1323 and 1612 cm(-1) correspond to the D and G bands of RGO, respectively. The peaks at 468 and 335 cm(-1) depict the characteristic bands of Ni(OH)(2) . The core-shell morphology of the hybrid was established from Transmission Electron Microscope (TEM) images. The lattice fringes are measured to be 0.33 nm for RGO layers and 0.22 nm for Ni(OH)(2) core, which correspond to (002) plane of RGO and (101) plane of Ni(OH)(2). For electrochemical studies, the as-prepared Ni(OH)2/RGO hybrid was used as a battery-type electrode in supercapacitor. The results indicate that the Ni(OH)(2)/RGO core-shell hybrid nanostructure exhibits a maximum specific capacity of 513.8 Cg(-1) at 10 mV/s with a maximum energy density of 119.4 Whkg(-1) at 1250 Wkg(-1) power density. Taylor & Francis 2023-05 Article PeerReviewed Khan, Yusuf and Urade, Akanksha R. and De Adhikari, Amrita and Maity, Palash Chandra and Ramesh, Kasi and Bashir, Shahid and Lahiri, Indranil and Ramesh, Subramaniam (2023) Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor. International Journal of Green Energy, 20 (7). pp. 725-733. ISSN 1543-5075, DOI https://doi.org/10.1080/15435075.2022.2088238 <https://doi.org/10.1080/15435075.2022.2088238>. 10.1080/15435075.2022.2088238
institution Universiti Malaya
building UM Library
collection Institutional Repository
continent Asia
country Malaysia
content_provider Universiti Malaya
content_source UM Research Repository
url_provider http://eprints.um.edu.my/
topic QC Physics
spellingShingle QC Physics
Khan, Yusuf
Urade, Akanksha R.
De Adhikari, Amrita
Maity, Palash Chandra
Ramesh, Kasi
Bashir, Shahid
Lahiri, Indranil
Ramesh, Subramaniam
Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor
description Ni(OH)(2)/reduced graphene oxide (RGO) core-shell hybrid nanostructure has been synthesized employing a facile and inexpensive chemical-precipitation technique. The synthesized core-shell nanostructures, comprising Ni(OH)(2) at the core and RGO as shell, were then coated on commercially available Ni foam used as an electrode. Prepared Ni(OH)(2)/RGO nanospheres were analyzed by Raman analysis for structural information. In the Raman spectrum, the peaks at 1323 and 1612 cm(-1) correspond to the D and G bands of RGO, respectively. The peaks at 468 and 335 cm(-1) depict the characteristic bands of Ni(OH)(2) . The core-shell morphology of the hybrid was established from Transmission Electron Microscope (TEM) images. The lattice fringes are measured to be 0.33 nm for RGO layers and 0.22 nm for Ni(OH)(2) core, which correspond to (002) plane of RGO and (101) plane of Ni(OH)(2). For electrochemical studies, the as-prepared Ni(OH)2/RGO hybrid was used as a battery-type electrode in supercapacitor. The results indicate that the Ni(OH)(2)/RGO core-shell hybrid nanostructure exhibits a maximum specific capacity of 513.8 Cg(-1) at 10 mV/s with a maximum energy density of 119.4 Whkg(-1) at 1250 Wkg(-1) power density.
format Article
author Khan, Yusuf
Urade, Akanksha R.
De Adhikari, Amrita
Maity, Palash Chandra
Ramesh, Kasi
Bashir, Shahid
Lahiri, Indranil
Ramesh, Subramaniam
author_facet Khan, Yusuf
Urade, Akanksha R.
De Adhikari, Amrita
Maity, Palash Chandra
Ramesh, Kasi
Bashir, Shahid
Lahiri, Indranil
Ramesh, Subramaniam
author_sort Khan, Yusuf
title Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor
title_short Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor
title_full Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor
title_fullStr Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor
title_full_unstemmed Electrochemical performance of binder-free Ni(OH)(2)/RGO battery type electrode materials for supercapacitor
title_sort electrochemical performance of binder-free ni(oh)(2)/rgo battery type electrode materials for supercapacitor
publisher Taylor & Francis
publishDate 2023
url http://eprints.um.edu.my/39530/
_version_ 1805881111827447808
score 13.18916