Preparation and Characterization of Pure-Phase Co2Y Ferrite Powders via a Scalable Aqueous Coprecipitation Method

Aqueous chemical coprecipitation methods have been developed to produce large quantities, 12 g per batch, of pure‐phase Ba2Co2Fe12O22 Y‐type hexaferrite powders. X‐ray diffraction studies showed that sintering temperatures as low as 900°C were sufficient to produce a single‐phase Y‐type hexaferrite...

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Veröffentlicht in:Journal of the American Ceramic Society 2010-10, Vol.93 (10), p.2994-2997
Hauptverfasser: Daigle, Andrew, DuPre', Eric, Geiler, Anton, Chen, Yajie, Parimi, Pat V., Vittoria, Carmine, Harris, Vincent G.
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container_end_page 2997
container_issue 10
container_start_page 2994
container_title Journal of the American Ceramic Society
container_volume 93
creator Daigle, Andrew
DuPre', Eric
Geiler, Anton
Chen, Yajie
Parimi, Pat V.
Vittoria, Carmine
Harris, Vincent G.
description Aqueous chemical coprecipitation methods have been developed to produce large quantities, 12 g per batch, of pure‐phase Ba2Co2Fe12O22 Y‐type hexaferrite powders. X‐ray diffraction studies showed that sintering temperatures as low as 900°C were sufficient to produce a single‐phase Y‐type hexaferrite material. The method has also been shown to lend itself to efficient scale up, leading to large batch production. The growth of particles as a function of time and temperature in a single‐step sintering process, as opposed to multiple annealing and sintering processes required in conventional ceramic processing, was explored. Size and shape of particles have been characterized by scanning electron microscopy, while the magnetic properties were studied by vibrating sample magnetometry. Measured structural and magnetic properties are closely matched with those of bulk ceramic materials, indicating that the proposed approach may serve as a large‐scale, cost‐effective substitute to conventional ceramic processing of hexagonal ferrite materials.
doi_str_mv 10.1111/j.1551-2916.2010.03958.x
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source Wiley Online Library Journals Frontfile Complete
subjects Annealing
Batch production
Ceramics
Coprecipitation
Diffraction
Ferrite
Magnetic properties
Sintering (powder metallurgy)
X-rays
Yttrium
title Preparation and Characterization of Pure-Phase Co2Y Ferrite Powders via a Scalable Aqueous Coprecipitation Method
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