Sol–gel synthesis and structural characterization of band gap engineered ferroelectric perovskite oxide potassium sodium barium nickel niobate

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dc.identifier.uri http://dx.doi.org/10.15488/11006
dc.identifier.uri https://www.repo.uni-hannover.de/handle/123456789/11088
dc.contributor.author Balanov, Vasilii A.
dc.contributor.author Zhao, Zhijun
dc.contributor.author Pan, Mingjing
dc.contributor.author Feldhoff, Armin
dc.contributor.author Bai, Yang
dc.date.accessioned 2021-05-25T11:49:22Z
dc.date.available 2021-05-25T11:49:22Z
dc.date.issued 2020
dc.identifier.citation Balanov, V.A.; Zhao, Z.; Pan, M.; Feldhoff, A.; Bai, Y.: Sol–gel synthesis and structural characterization of band gap engineered ferroelectric perovskite oxide potassium sodium barium nickel niobate. In: Journal of Sol-Gel Science and Technology 96 (2020), S. 649-658. DOI: https://doi.org/10.1007/s10971-020-05372-2
dc.description.abstract Ferroelectric materials with engineered thus visible-range optical band gaps are increasingly researched in recent years, triggering potentially new applications in solar cells, opto-ferroelectric devices, multifunctional sensors, and multisource energy harvesters. To date, most band gap engineered ferroelectrics have been discovered in form of ceramics fabricated via the solid-state route. Like other functional counterparts further research of these materials into nanoscale developments, e.g., nanocomposites and thin films, demands nanofabrication methods to be investigated. An emerging band gap engineered ferroelectric composition, (K,Na,Ba)(Ni,Nb)O3−δ (KNBNNO), discovered with solid-state route has allured research for novel applications as mentioned above. However, its nanofabrication via wet chemical routes has rarely been reported. In this paper, sol–gel method is used to fabricate KNBNNO nanoparticles. The developed method can successfully form the target perovskite phases, and is able to reduce the particle size from 300 to 400 nm made via the solid-state reaction to about 100 nm. In addition, the distributed particle size in the synthesized solutions averages at 4–6 nm, making the method suitable for potential thin film fabrication. Therefore, this paper offers a nanofabrication option to the emerging KNBNNO for prospective nanoscale research. [Figure not available: see fulltext.] © 2020, The Author(s). eng
dc.language.iso eng
dc.publisher Dordrecht [u.a.] : Springer Science
dc.relation.ispartofseries Journal of Sol-Gel Science and Technology 96 (2020)
dc.rights CC BY 4.0 Unported
dc.rights.uri https://creativecommons.org/licenses/by/4.0/
dc.subject KNBNNO eng
dc.subject KNN–BNNO eng
dc.subject Lead-free eng
dc.subject Nanoparticle eng
dc.subject Photo-ferroelectric eng
dc.subject Sol–gel eng
dc.subject Barium eng
dc.subject Energy gap eng
dc.subject Ferroelectricity eng
dc.subject Nanocomposite films eng
dc.subject Nanotechnology eng
dc.subject Nickel eng
dc.subject Niobium compounds eng
dc.subject Particle size eng
dc.subject Perovskite eng
dc.subject Potassium eng
dc.subject Sodium eng
dc.subject Solid state reactions eng
dc.subject Sols eng
dc.subject Thin films eng
dc.subject Distributed particles eng
dc.subject Ferroelectric perovskites eng
dc.subject Multifunctional sensors eng
dc.subject Nano-fabrication methods eng
dc.subject Nanoscale research eng
dc.subject Structural characterization eng
dc.subject Synthesized solution eng
dc.subject Thin film fabrication eng
dc.subject Ferroelectric materials eng
dc.subject.ddc 600 | Technik ger
dc.subject.ddc 670 | Industrielle und handwerkliche Fertigung ger
dc.title Sol–gel synthesis and structural characterization of band gap engineered ferroelectric perovskite oxide potassium sodium barium nickel niobate
dc.type Article
dc.type Text
dc.relation.essn 0928-0707
dc.relation.essn 1573-4846
dc.relation.issn 0928-0707
dc.relation.doi https://doi.org/10.1007/s10971-020-05372-2
dc.bibliographicCitation.volume 96
dc.bibliographicCitation.firstPage 649
dc.bibliographicCitation.lastPage 658
dc.description.version publishedVersion
tib.accessRights frei zug�nglich


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