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Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)

In this paper, NiO, La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3-δ) (LSCF) and (CeO(2))(0.8)(Sm(2)O(3))(0.2) (SDC) nanopowders with different microstructures were obtained using hydrothermal and glycol–citrate methods. The microstructural features of the powders were examined using scanning electron microscopy (...

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Autores principales: Simonenko, Tatiana L., Simonenko, Nikolay P., Gorobtsov, Philipp Yu., Simonenko, Elizaveta P., Kuznetsov, Nikolay T.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9865654/
https://www.ncbi.nlm.nih.gov/pubmed/36677064
http://dx.doi.org/10.3390/mi14010003
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author Simonenko, Tatiana L.
Simonenko, Nikolay P.
Gorobtsov, Philipp Yu.
Simonenko, Elizaveta P.
Kuznetsov, Nikolay T.
author_facet Simonenko, Tatiana L.
Simonenko, Nikolay P.
Gorobtsov, Philipp Yu.
Simonenko, Elizaveta P.
Kuznetsov, Nikolay T.
author_sort Simonenko, Tatiana L.
collection PubMed
description In this paper, NiO, La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3-δ) (LSCF) and (CeO(2))(0.8)(Sm(2)O(3))(0.2) (SDC) nanopowders with different microstructures were obtained using hydrothermal and glycol–citrate methods. The microstructural features of the powders were examined using scanning electron microscopy (SEM). The obtained oxide powders were used to form functional inks for the sequential microextrusion printing of NiO-SDC, SDC and LSCF-SDC coatings with resulting three-layer structures of (NiO-SDC)/SDC/(LSCF-SDC) composition. The crystal structures of these layers were studied using an X-ray diffraction analysis, and the microstructures were studied using atomic force microscopy. Scanning capacitance microscopy was employed to build maps of capacitance gradient distribution over the surface of the oxide layers, and Kelvin probe force microscopy was utilized to map surface potential distribution and to estimate the work function values of the studied oxide layers. Using SEM and an energy-dispersive X-ray microanalysis, the cross-sectional area of the formed three-layer structure was analyzed—the interfacial boundary and the chemical element distribution over the surface of the cross-section were investigated. Using impedance spectroscopy, the temperature dependence of the electrical conductivity was also determined for the printed three-layer nanostructure.
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spelling pubmed-98656542023-01-22 Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ) Simonenko, Tatiana L. Simonenko, Nikolay P. Gorobtsov, Philipp Yu. Simonenko, Elizaveta P. Kuznetsov, Nikolay T. Micromachines (Basel) Article In this paper, NiO, La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3-δ) (LSCF) and (CeO(2))(0.8)(Sm(2)O(3))(0.2) (SDC) nanopowders with different microstructures were obtained using hydrothermal and glycol–citrate methods. The microstructural features of the powders were examined using scanning electron microscopy (SEM). The obtained oxide powders were used to form functional inks for the sequential microextrusion printing of NiO-SDC, SDC and LSCF-SDC coatings with resulting three-layer structures of (NiO-SDC)/SDC/(LSCF-SDC) composition. The crystal structures of these layers were studied using an X-ray diffraction analysis, and the microstructures were studied using atomic force microscopy. Scanning capacitance microscopy was employed to build maps of capacitance gradient distribution over the surface of the oxide layers, and Kelvin probe force microscopy was utilized to map surface potential distribution and to estimate the work function values of the studied oxide layers. Using SEM and an energy-dispersive X-ray microanalysis, the cross-sectional area of the formed three-layer structure was analyzed—the interfacial boundary and the chemical element distribution over the surface of the cross-section were investigated. Using impedance spectroscopy, the temperature dependence of the electrical conductivity was also determined for the printed three-layer nanostructure. MDPI 2022-12-20 /pmc/articles/PMC9865654/ /pubmed/36677064 http://dx.doi.org/10.3390/mi14010003 Text en © 2022 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
Simonenko, Tatiana L.
Simonenko, Nikolay P.
Gorobtsov, Philipp Yu.
Simonenko, Elizaveta P.
Kuznetsov, Nikolay T.
Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)
title Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)
title_full Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)
title_fullStr Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)
title_full_unstemmed Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)
title_short Microextrusion Printing of Multilayer Hierarchically Organized Planar Nanostructures Based on NiO, (CeO(2))(0.8)(Sm(2)O(3))(0.2) and La(0.6)Sr(0.4)Co(0.2)Fe(0.8)O(3−δ)
title_sort microextrusion printing of multilayer hierarchically organized planar nanostructures based on nio, (ceo(2))(0.8)(sm(2)o(3))(0.2) and la(0.6)sr(0.4)co(0.2)fe(0.8)o(3−δ)
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9865654/
https://www.ncbi.nlm.nih.gov/pubmed/36677064
http://dx.doi.org/10.3390/mi14010003
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