Non-isothermal Wetting of an Al Alloy Pin by Al-Si Melt under Terrestrial and Microgravity Conditions

Svetlana A. Gruzd; Mikhail D. Krivilyov; Dmitry S. Samsonov; Yangyang Wu; Dusan P. Sekulic; Sinisa Dj Mesarovic

doi:10.1007/s12217-022-09973-0

Non-isothermal Wetting of an Al Alloy Pin by Al-Si Melt under Terrestrial and Microgravity Conditions

Svetlana A. Gruzd
, Mikhail D. Krivilyov
, Dmitry S. Samsonov
, Yangyang Wu
, Dusan P. Sekulic
, Sinisa Dj Mesarovic

Producción científica: Article › revisión exhaustiva

3 Citas (Scopus)

Resumen

Gravity is important in multiphase flows as its influence on migration of free liquid surfaces may be comparable to capillary, thermal and compositional effects. Flow of liquid metal over solid surfaces is a type of a problem where microgravity conditions may change wetting and spreading behavior substantially. The problem of viscous flow of a braze Al-Si material on a surface of a metal pin has been studied both experimentally and by means of phase-field simulations. The meniscus shape as a function of time is analyzed at different gravity conditions and melt masses. It was found that, for the considered quantities of brazing fluids, gravity does not have a sizeable impact on meniscus formation. We present the simulations and experimental data obtained in the joint NASA-Roscosmos space experiment BRAINS (REAL) onboard of the ISS.

Idioma original	English
Número de artículo	65
Publicación	Microgravity Science and Technology
Volumen	34
N.º	4
DOI	https://doi.org/10.1007/s12217-022-09973-0
Estado	Published - ago 2022

Nota bibliográfica

Publisher Copyright:
© 2022, The Author(s), under exclusive licence to Springer Nature B.V.

Financiación

This work was funded by Roscosmos Research ISS Program (Joint Space Experiment «Peaл» (Roscosmos program acronym), BRAINS (NASA program acronym)) and NASA’s Physical Sciences Research Program (Grant No. NNX17AB52G). Materials are supported by Gränges AB (Finspång, Sweden). TRILLIUM®is protected by U.S. Patent No. 8871356 as well as corresponding patents and pending patent applications in other major countries. The authors acknowledge a number of useful discussions with Ian M. Hanson of NASA Marshal Space Flight Center, Huntsville, Al, USA. The team acknowledges Konstantinos Lazaridis (Washington State University) for thorough discussions and Adam Price (University of Kentucky) for his technical support. This work was funded by Roscosmos Research ISS Program (Joint Space Experiment «Peaл» (Roscosmos program acronym), BRAINS (NASA program acronym)) and NASA’s Physical Sciences Research Program (Grant No. NNX17AB52G). Materials are supported by Gränges AB (Finspång, Sweden). is protected by U.S. Patent No. 8871356 as well as corresponding patents and pending patent applications in other major countries. The authors acknowledge a number of useful discussions with Ian M. Hanson of NASA Marshal Space Flight Center, Huntsville, Al, USA. The team acknowledges Konstantinos Lazaridis (Washington State University) for thorough discussions and Adam Price (University of Kentucky) for his technical support. ®

Financiadores	Número del financiador
BRAINS
Konstantinos Lazaridis
NASA’s Physical Sciences Research Program	NNX17AB52G
Roscosmos Research ISS
National Aeronautics and Space Administration
Washington State University

ASJC Scopus subject areas

Modeling and Simulation
General Engineering
General Physics and Astronomy
Applied Mathematics

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title = "Non-isothermal Wetting of an Al Alloy Pin by Al-Si Melt under Terrestrial and Microgravity Conditions",

abstract = "Gravity is important in multiphase flows as its influence on migration of free liquid surfaces may be comparable to capillary, thermal and compositional effects. Flow of liquid metal over solid surfaces is a type of a problem where microgravity conditions may change wetting and spreading behavior substantially. The problem of viscous flow of a braze Al-Si material on a surface of a metal pin has been studied both experimentally and by means of phase-field simulations. The meniscus shape as a function of time is analyzed at different gravity conditions and melt masses. It was found that, for the considered quantities of brazing fluids, gravity does not have a sizeable impact on meniscus formation. We present the simulations and experimental data obtained in the joint NASA-Roscosmos space experiment BRAINS (REAL) onboard of the ISS.",

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AU - Gruzd, Svetlana A.

AU - Krivilyov, Mikhail D.

AU - Samsonov, Dmitry S.

AU - Wu, Yangyang

AU - Sekulic, Dusan P.

AU - Mesarovic, Sinisa Dj

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AB - Gravity is important in multiphase flows as its influence on migration of free liquid surfaces may be comparable to capillary, thermal and compositional effects. Flow of liquid metal over solid surfaces is a type of a problem where microgravity conditions may change wetting and spreading behavior substantially. The problem of viscous flow of a braze Al-Si material on a surface of a metal pin has been studied both experimentally and by means of phase-field simulations. The meniscus shape as a function of time is analyzed at different gravity conditions and melt masses. It was found that, for the considered quantities of brazing fluids, gravity does not have a sizeable impact on meniscus formation. We present the simulations and experimental data obtained in the joint NASA-Roscosmos space experiment BRAINS (REAL) onboard of the ISS.

KW - Contact angle

KW - Heat transfer

KW - Melting

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Non-isothermal Wetting of an Al Alloy Pin by Al-Si Melt under Terrestrial and Microgravity Conditions

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ASJC Scopus subject areas

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