Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion

Combining stainless steel with zirconia components by powder technological shaping routes for manufacturing of multifunctional parts is an advantageous and promising one-step method making expensive and time-consuming additional joining steps redundant. However, several requirements for co-shaping a...

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Main Authors: Anne Günther, Tassilo Moritz, Uwe Mühle
Format: Article
Language:English
Published: MDPI AG 2020-05-01
Series:Ceramics
Subjects:
Online Access:https://www.mdpi.com/2571-6131/3/2/22
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spelling doaj-bc745cc8ef8140fd98e715694adab54b2020-11-25T02:57:30ZengMDPI AGCeramics2571-61312020-05-0132224525710.3390/ceramics3020022Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal CorrosionAnne Günther0Tassilo Moritz1Uwe Mühle2Fraunhofer Institute for Ceramic Technologies and Systems, Winterbergstraße 28, 01277 DresdenFraunhofer Institute for Ceramic Technologies and Systems, Winterbergstraße 28, 01277 DresdenRobert Bosch Semiconductor Manufacturing Dresden GmbH, Knappsdorfer Str. 12, 01109 DresdenCombining stainless steel with zirconia components by powder technological shaping routes for manufacturing of multifunctional parts is an advantageous and promising one-step method making expensive and time-consuming additional joining steps redundant. However, several requirements for co-shaping and co-sintering of the very different compound partners have to be met. The microstructural and chemical constitution of the interface between both materials plays an important role for the mechanical properties, durability and corrosion resistance of the manufactured parts. In the present study, different shaping techniques for co-shaping of stainless steel and zirconia are introduced. The microstructure and the interphase properties of metal/ceramic hybrid parts have been investigated for samples made by tape casting, subsequent lamination and co-sintering. Nevertheless, the results of this study are valid for components made by other hybrid shaping processes as well. The interfaces were characterized by TEM, FESEM, EDX, and X-ray diffraction. Furthermore, the hydrothermal stability of the material compound was investigated.https://www.mdpi.com/2571-6131/3/2/22metal/ceramic material compoundhybrid materialsstainless steelzirconiaco-sinteringco-shaping
collection DOAJ
language English
format Article
sources DOAJ
author Anne Günther
Tassilo Moritz
Uwe Mühle
spellingShingle Anne Günther
Tassilo Moritz
Uwe Mühle
Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion
Ceramics
metal/ceramic material compound
hybrid materials
stainless steel
zirconia
co-sintering
co-shaping
author_facet Anne Günther
Tassilo Moritz
Uwe Mühle
author_sort Anne Günther
title Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion
title_short Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion
title_full Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion
title_fullStr Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion
title_full_unstemmed Microstructure and Interface Characteristics of 17-4PH/YSZ Components after Co-Sintering and Hydrothermal Corrosion
title_sort microstructure and interface characteristics of 17-4ph/ysz components after co-sintering and hydrothermal corrosion
publisher MDPI AG
series Ceramics
issn 2571-6131
publishDate 2020-05-01
description Combining stainless steel with zirconia components by powder technological shaping routes for manufacturing of multifunctional parts is an advantageous and promising one-step method making expensive and time-consuming additional joining steps redundant. However, several requirements for co-shaping and co-sintering of the very different compound partners have to be met. The microstructural and chemical constitution of the interface between both materials plays an important role for the mechanical properties, durability and corrosion resistance of the manufactured parts. In the present study, different shaping techniques for co-shaping of stainless steel and zirconia are introduced. The microstructure and the interphase properties of metal/ceramic hybrid parts have been investigated for samples made by tape casting, subsequent lamination and co-sintering. Nevertheless, the results of this study are valid for components made by other hybrid shaping processes as well. The interfaces were characterized by TEM, FESEM, EDX, and X-ray diffraction. Furthermore, the hydrothermal stability of the material compound was investigated.
topic metal/ceramic material compound
hybrid materials
stainless steel
zirconia
co-sintering
co-shaping
url https://www.mdpi.com/2571-6131/3/2/22
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