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The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder

Ni–P–ZrO(2) composite powder was obtained from a galvanic nickel bath with ZrO(2) powder. Production was conducted under galvanostatic conditions. The Ni–P–ZrO(2) composite powder was characterized by the presence of ZrO(2) particles covered with electrolytical nanocrystalline Ni–P coating. The chem...

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Autores principales: Niedbała, Jolanta, Popczyk, Magdalena, Benke, Grzegorz, Okła, Hubert, Gabor, Jadwiga, Wrzalik, Roman, Stanula, Arkadiusz, Swinarew, Andrzej S.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8585338/
https://www.ncbi.nlm.nih.gov/pubmed/34772121
http://dx.doi.org/10.3390/ma14216597
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author Niedbała, Jolanta
Popczyk, Magdalena
Benke, Grzegorz
Okła, Hubert
Gabor, Jadwiga
Wrzalik, Roman
Stanula, Arkadiusz
Swinarew, Andrzej S.
author_facet Niedbała, Jolanta
Popczyk, Magdalena
Benke, Grzegorz
Okła, Hubert
Gabor, Jadwiga
Wrzalik, Roman
Stanula, Arkadiusz
Swinarew, Andrzej S.
author_sort Niedbała, Jolanta
collection PubMed
description Ni–P–ZrO(2) composite powder was obtained from a galvanic nickel bath with ZrO(2) powder. Production was conducted under galvanostatic conditions. The Ni–P–ZrO(2) composite powder was characterized by the presence of ZrO(2) particles covered with electrolytical nanocrystalline Ni–P coating. The chemical composition (XRF method), phase structure (XRD method) and morphology (SEM) of Ni–P–ZrO(2) and the distribution of elements in the powder were all investigated. Based on the analyses, it was found that the obtained powder contained about 50 weight % Zr and 40 weight % Ni. Phase structure analysis showed that the basic crystalline component of the tested powder is a mixed oxide of zirconium and yttrium Zr(0.92)Y(0.08)O(1.96). In addition, the sample contains very large amounts of amorphous compounds (Ni–P). The mechanism to produce the composite powder particles is explained on the basis of Ni(2+) ions adsorption process on the metal oxide particles. Current flow through the cell forces the movement of particles in the bath. Oxide grains with adsorbed nickel ions were transported to the cathode surface. Ni(2+) ions were discharged. The oxide particles were covered with a Ni–P layer and the heavy composite grains of Ni–P–ZrO(2) flowed down to the bottom of the cell.
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spelling pubmed-85853382021-11-12 The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder Niedbała, Jolanta Popczyk, Magdalena Benke, Grzegorz Okła, Hubert Gabor, Jadwiga Wrzalik, Roman Stanula, Arkadiusz Swinarew, Andrzej S. Materials (Basel) Article Ni–P–ZrO(2) composite powder was obtained from a galvanic nickel bath with ZrO(2) powder. Production was conducted under galvanostatic conditions. The Ni–P–ZrO(2) composite powder was characterized by the presence of ZrO(2) particles covered with electrolytical nanocrystalline Ni–P coating. The chemical composition (XRF method), phase structure (XRD method) and morphology (SEM) of Ni–P–ZrO(2) and the distribution of elements in the powder were all investigated. Based on the analyses, it was found that the obtained powder contained about 50 weight % Zr and 40 weight % Ni. Phase structure analysis showed that the basic crystalline component of the tested powder is a mixed oxide of zirconium and yttrium Zr(0.92)Y(0.08)O(1.96). In addition, the sample contains very large amounts of amorphous compounds (Ni–P). The mechanism to produce the composite powder particles is explained on the basis of Ni(2+) ions adsorption process on the metal oxide particles. Current flow through the cell forces the movement of particles in the bath. Oxide grains with adsorbed nickel ions were transported to the cathode surface. Ni(2+) ions were discharged. The oxide particles were covered with a Ni–P layer and the heavy composite grains of Ni–P–ZrO(2) flowed down to the bottom of the cell. MDPI 2021-11-02 /pmc/articles/PMC8585338/ /pubmed/34772121 http://dx.doi.org/10.3390/ma14216597 Text en © 2021 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Niedbała, Jolanta
Popczyk, Magdalena
Benke, Grzegorz
Okła, Hubert
Gabor, Jadwiga
Wrzalik, Roman
Stanula, Arkadiusz
Swinarew, Andrzej S.
The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder
title The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder
title_full The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder
title_fullStr The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder
title_full_unstemmed The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder
title_short The Use of ZrO(2) Waste for the Electrolytic Production of Composite Ni–P–ZrO(2) Powder
title_sort use of zro(2) waste for the electrolytic production of composite ni–p–zro(2) powder
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8585338/
https://www.ncbi.nlm.nih.gov/pubmed/34772121
http://dx.doi.org/10.3390/ma14216597
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