Modeling for non isothermal cavitation using 4-equation models

Modeling for non isothermal cavitation using 4-equation models

A compressible, two-phase, one-fluid solver has been developed to investigate the behaviour of cavitation models including thermodynamic effects. The code is composed by three conservation laws for mixture variables (mass, momentum and total energy) and a supplementary transport equation for the voi...

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Published in:International journal of heat and mass transfer Vol. 76; pp. 247 - 262
Main Author: Goncalves, Eric
Format: Journal Article
Language:English
Published: Elsevier Ltd 01-09-2014
Elsevier
Subjects:
Cavitation
Compressibility
Downstream effects
Engineering Sciences
Fluid mechanics
Fluids mechanics
Freon
Homogeneous model
Mass transfer
Mathematical models
Mechanics
Physics
Rarefaction
Thermal effects
Turbulent flow
Homogeneous model
Cavitation
Mass transfer
Thermal effects
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Abstract A compressible, two-phase, one-fluid solver has been developed to investigate the behaviour of cavitation models including thermodynamic effects. The code is composed by three conservation laws for mixture variables (mass, momentum and total energy) and a supplementary transport equation for the void ratio. Two formulations for the mass transfer between phases are studied. Numerical simulations are firstly performed on rarefaction cavitating problems in which the working fluid is hot water and freon R-114. A realistic turbulent Venturi case with freon R-114 is performed and comparisons are done between 3- and 4-equation models. A warming effect is highlighted downstream the cavitation pocket in the region of pressure recuperation.
AbstractList A compressible, two-phase, one-fluid solver has been developed to investigate the behaviour of cavitation models including thermodynamic effects. The code is composed by three conservation laws for mixture variables (mass, momentum and total energy) and a supplementary transport equation for the void ratio. Two formulations for the mass transfer between phases are studied. Numerical simulations are firstly performed on rarefaction cavitating problems in which the working fluid is hot water and freon R-114. A realistic turbulent Venturi case with freon R-114 is performed and comparisons are done between 3- and 4-equation models. A warming effect is highlighted downstream the cavitation pocket in the region of pressure recuperation.
Author Goncalvès, Eric
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Keywords Homogeneous model
Cavitation
Mass transfer
Thermal effects
Language English
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Snippet A compressible, two-phase, one-fluid solver has been developed to investigate the behaviour of cavitation models including thermodynamic effects. The code is...
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SubjectTerms Cavitation
Compressibility
Downstream effects
Engineering Sciences
Fluid mechanics
Fluids mechanics
Freon
Homogeneous model
Mass transfer
Mathematical models
Mechanics
Physics
Rarefaction
Thermal effects
Turbulent flow
Title Modeling for non isothermal cavitation using 4-equation models
URI https://dx.doi.org/10.1016/j.ijheatmasstransfer.2014.04.065
https://search.proquest.com/docview/1562671281
https://search.proquest.com/docview/1671519354
https://hal.science/hal-00990670
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