Automated 3D EBSD for metallic powders

Metallic powders are commonly used in additive manufacturing processes. While their post-process consolidated properties are widely studied, there is little research on the properties of the powders prior to consolidation. Understanding the powder characteristics before use in additive manufacturing...

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Main Authors: Caitlin Walde, Roger Ristau, Danielle Cote
Format: Article
Language:English
Published: Elsevier 2018-01-01
Series:MethodsX
Online Access:http://www.sciencedirect.com/science/article/pii/S2215016118300876
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spelling doaj-da836898c0f64e9cade4e26808fd038f2020-11-25T01:46:40ZengElsevierMethodsX2215-01612018-01-015652655Automated 3D EBSD for metallic powdersCaitlin Walde0Roger Ristau1Danielle Cote2Worcester Polytechnic Institute, United States; Corresponding author.University of Connecticut, United StatesWorcester Polytechnic Institute, United StatesMetallic powders are commonly used in additive manufacturing processes. While their post-process consolidated properties are widely studied, there is little research on the properties of the powders prior to consolidation. Understanding the powder characteristics before use in additive manufacturing processes could lead to fine-tuning properties of additively manufactured materials. The three-dimensional grain structure of metals can be useful in predicting their properties and microstructure. Powder particles are much smaller and more difficult to fixture and polish than their bulk counterparts, hence typical protocols are difficult to use when serially sectioning them. This method describes a recommendation as to how to fixture, mill, and image metallic powder particles using a Xe P-FIB to mill and take EBSD measurements. It is based on milling and imaging techniques used for bulk materials, but with the specific advantage of how to fixture the powder sample. Our modifications include: • the method of fixturing the specimen to the holder. • the method of protecting the sample during milling. Method name: Automated 3D-EBSD for metallic powders using a Xe P-FIB, Keywords: Additive manufacturing, Powder metallurgy, Metallography, Characterization, Electron microscopy, Serial sectioning, Three-dimensional microscopy, 3D microscopy, 3D sectioninghttp://www.sciencedirect.com/science/article/pii/S2215016118300876
collection DOAJ
language English
format Article
sources DOAJ
author Caitlin Walde
Roger Ristau
Danielle Cote
spellingShingle Caitlin Walde
Roger Ristau
Danielle Cote
Automated 3D EBSD for metallic powders
MethodsX
author_facet Caitlin Walde
Roger Ristau
Danielle Cote
author_sort Caitlin Walde
title Automated 3D EBSD for metallic powders
title_short Automated 3D EBSD for metallic powders
title_full Automated 3D EBSD for metallic powders
title_fullStr Automated 3D EBSD for metallic powders
title_full_unstemmed Automated 3D EBSD for metallic powders
title_sort automated 3d ebsd for metallic powders
publisher Elsevier
series MethodsX
issn 2215-0161
publishDate 2018-01-01
description Metallic powders are commonly used in additive manufacturing processes. While their post-process consolidated properties are widely studied, there is little research on the properties of the powders prior to consolidation. Understanding the powder characteristics before use in additive manufacturing processes could lead to fine-tuning properties of additively manufactured materials. The three-dimensional grain structure of metals can be useful in predicting their properties and microstructure. Powder particles are much smaller and more difficult to fixture and polish than their bulk counterparts, hence typical protocols are difficult to use when serially sectioning them. This method describes a recommendation as to how to fixture, mill, and image metallic powder particles using a Xe P-FIB to mill and take EBSD measurements. It is based on milling and imaging techniques used for bulk materials, but with the specific advantage of how to fixture the powder sample. Our modifications include: • the method of fixturing the specimen to the holder. • the method of protecting the sample during milling. Method name: Automated 3D-EBSD for metallic powders using a Xe P-FIB, Keywords: Additive manufacturing, Powder metallurgy, Metallography, Characterization, Electron microscopy, Serial sectioning, Three-dimensional microscopy, 3D microscopy, 3D sectioning
url http://www.sciencedirect.com/science/article/pii/S2215016118300876
work_keys_str_mv AT caitlinwalde automated3debsdformetallicpowders
AT rogerristau automated3debsdformetallicpowders
AT daniellecote automated3debsdformetallicpowders
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