Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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Materials Map under construction

The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (4/4 displayed)

  • 2020Tuning the morphology and redox behaviour by varying the concentration of Fe in a CoNiFe ternary oxide heterostructure for hybrid devices13citations
  • 2020Role of additives in electrochemical deposition of ternary metal oxide microspheres for supercapacitor applications67citations
  • 2019Facile synthesis of a nanoporous sea sponge architecture in a binary metal oxide16citations
  • 2015Dual effect of anionic surfactants in the electrodeposited MnO2 trafficking redox ions for energy storage25citations

Places of action

Chart of shared publication
Acharya, A. N.
2 / 2 shared
Tripathy, B. C.
2 / 2 shared
Alenazey, F.
1 / 2 shared
Panda, P. K.
2 / 4 shared
Minakshi, Manickam
4 / 34 shared
Jiang, Z-T
3 / 29 shared
Swain, N.
1 / 1 shared
Mohapatra, S.
1 / 10 shared
Panda, P.
1 / 1 shared
Tripathy, B.
1 / 1 shared
Subbaiah, T.
1 / 1 shared
Meyrick, D.
1 / 2 shared
Chandra Tripathy, B.
1 / 1 shared
Chart of publication period
2020
2019
2015

Co-Authors (by relevance)

  • Acharya, A. N.
  • Tripathy, B. C.
  • Alenazey, F.
  • Panda, P. K.
  • Minakshi, Manickam
  • Jiang, Z-T
  • Swain, N.
  • Mohapatra, S.
  • Panda, P.
  • Tripathy, B.
  • Subbaiah, T.
  • Meyrick, D.
  • Chandra Tripathy, B.
OrganizationsLocationPeople

article

Role of additives in electrochemical deposition of ternary metal oxide microspheres for supercapacitor applications

  • Acharya, A. N.
  • Swain, N.
  • Tripathy, B. C.
  • Panda, P. K.
  • Mohapatra, S.
  • Minakshi, Manickam
  • Jiang, Z-T
  • Biswal, A.
Abstract

A simple two-step approach has been employed to synthesize a cobalt–nickel–copper ternary metal oxide, involving electrochemical precipitation/deposition followed by calcination. The ternary metal hydroxide gets precipitated/deposited from a nitrate bath at the cathode in the catholyte chamber of a two-compartment diaphragm cell at room temperature having a pH ≈ 3. The microstructure of the ternary hydroxides was modified in situ by two different surfactants such as cetyltrimethylammonium bromide and dodecyltrimethylammonium bromide in the bath aiming for enhanced storage performance in the electrochemical devices. The effect of the surfactant produces a transition from microspheres to nanosheets, and the effect of micelle concentration produces nanospheres at a higher ion concentration. The ternary hydroxides were calcined at 300 °C to obtain the desired ternary mixed oxide materials as the electrode for hybrid supercapacitors. X-ray diffraction analysis confirmed the formation of the ternary metal oxide product. The scanning electron microscopy images associated with energy-dispersive analysis suggest the formation of a nanostructured porous composite. Ternary metal oxide in the absence and presence of a surfactant served as the cathode and activated carbon served as the anode for supercapacitor application. DTAB-added metal oxide showed 95.1% capacitance retention after 1000 cycles, achieving 188 F/g at a current density of 0.1 A/g, and thereafter stable until 5000 cycles, inferring that more transition metals in the oxide along with suitable surfactants at an appropriate micellar concentration may be better for redox reactions and achieving higher electrical conductivity and smaller charge transfer resistance. The role of various metal cations and surfactants as additives in the electrolytic bath has been discussed.

Topics
  • Deposition
  • porous
  • density
  • microstructure
  • Carbon
  • nickel
  • scanning electron microscopy
  • x-ray diffraction
  • composite
  • copper
  • precipitation
  • cobalt
  • current density
  • electrical conductivity
  • surfactant