Detailed atmospheric ice accretion surface measurement using micro‐computed tomography
Abstract Surfaces exposed to atmospheric cold temperature and humid environments are prone to ice accretion. Airplanes, electrical power transmission cables, and wind turbines are typical examples for which icing has to be considered. The measurement of the resulting ice shapes is a challenging proc...
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Online Access: | https://doi.org/10.1002/asl.997 |
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doaj-aa4b6054a0bd41408531e64c25bb46e42020-11-25T03:51:25ZengWileyAtmospheric Science Letters1530-261X2020-10-012110n/an/a10.1002/asl.997Detailed atmospheric ice accretion surface measurement using micro‐computed tomographyJuan S. Velandia0Stephan E. Bansmer1Institute of Fluid Mechanics Technische Universität Braunschweig Braunschweig GermanyInstitute of Fluid Mechanics Technische Universität Braunschweig Braunschweig GermanyAbstract Surfaces exposed to atmospheric cold temperature and humid environments are prone to ice accretion. Airplanes, electrical power transmission cables, and wind turbines are typical examples for which icing has to be considered. The measurement of the resulting ice shapes is a challenging process. While macroscopic characteristics of the ice geometry can be observed using photography and optical scanning techniques, microscopic measurements are difficult to conduct because grooved surface partially occludes the geometry of chasms. To overcome this optical inaccessibility, we propose a method to carry out detailed high‐resolution measurements of the accretion surface with micro‐computed tomography. This approach provides a unique visualization of the empty spaces in the feather region. The information obtained by this technique can improve the understanding of ice accretion physics and its computational modeling.https://doi.org/10.1002/asl.997atmospheric icingice feathericing wind tunnelmicro‐computed tomography |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Juan S. Velandia Stephan E. Bansmer |
spellingShingle |
Juan S. Velandia Stephan E. Bansmer Detailed atmospheric ice accretion surface measurement using micro‐computed tomography Atmospheric Science Letters atmospheric icing ice feather icing wind tunnel micro‐computed tomography |
author_facet |
Juan S. Velandia Stephan E. Bansmer |
author_sort |
Juan S. Velandia |
title |
Detailed atmospheric ice accretion surface measurement using micro‐computed tomography |
title_short |
Detailed atmospheric ice accretion surface measurement using micro‐computed tomography |
title_full |
Detailed atmospheric ice accretion surface measurement using micro‐computed tomography |
title_fullStr |
Detailed atmospheric ice accretion surface measurement using micro‐computed tomography |
title_full_unstemmed |
Detailed atmospheric ice accretion surface measurement using micro‐computed tomography |
title_sort |
detailed atmospheric ice accretion surface measurement using micro‐computed tomography |
publisher |
Wiley |
series |
Atmospheric Science Letters |
issn |
1530-261X |
publishDate |
2020-10-01 |
description |
Abstract Surfaces exposed to atmospheric cold temperature and humid environments are prone to ice accretion. Airplanes, electrical power transmission cables, and wind turbines are typical examples for which icing has to be considered. The measurement of the resulting ice shapes is a challenging process. While macroscopic characteristics of the ice geometry can be observed using photography and optical scanning techniques, microscopic measurements are difficult to conduct because grooved surface partially occludes the geometry of chasms. To overcome this optical inaccessibility, we propose a method to carry out detailed high‐resolution measurements of the accretion surface with micro‐computed tomography. This approach provides a unique visualization of the empty spaces in the feather region. The information obtained by this technique can improve the understanding of ice accretion physics and its computational modeling. |
topic |
atmospheric icing ice feather icing wind tunnel micro‐computed tomography |
url |
https://doi.org/10.1002/asl.997 |
work_keys_str_mv |
AT juansvelandia detailedatmosphericiceaccretionsurfacemeasurementusingmicrocomputedtomography AT stephanebansmer detailedatmosphericiceaccretionsurfacemeasurementusingmicrocomputedtomography |
_version_ |
1724487885701251072 |