CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures

The incorporation of new equations to extend the applicability of open-source computational fluid dynamics (CFD) software according to the user's needs must be complemented with code verification and validation with a representative case. This paper presents the development and validation of an OpenFOAM®-based solver suitable for simulating multiphase fluid flow considering three fluid phases with different densities and temperatures, i.e., two miscible liquids and air. A benchmark "dam-break" experiment was performed to validate the solver. Ten thermistors measured temperature variations in different locations of the experimental model and the temperature time series were compared against those of numerical probes in analogous locations. The accuracy of the temperature field assessment considered three different turbulence models: (a) zero-equation, (b) k-omega (Reynolds averaged simulation; RAS), and (c) large eddy simulation (LES). The simulations exhibit a maximum time-average relative and absolute errors of 9.3% and 3.1 K, respectively; thus, the validation tests proved to achieve an adequate performance of the numerical model. The solver developed can be applied in the modeling of thermal discharges into water bodies.

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Main Authors: Rodríguez Ocampo, Paola Elizabeth autora, Ring, Michael autor, Hernández Fontes, Jassiel Vladimir autor, Alcérreca Huerta, Juan Carlos Doctor autor 20527, Mendoza, Edgar autor, Silva, Rodolfo autor
Format: Texto biblioteca
Language:eng
Subjects:Dinámica de fluidos computacional, Soporte lógico libre, Temperatura del agua,
Online Access:https://www.mdpi.com/2073-4441/12/9/2581
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spelling KOHA-OAI-ECOSUR:98092024-05-21T20:58:00ZCFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures Rodríguez Ocampo, Paola Elizabeth autora Ring, Michael autor Hernández Fontes, Jassiel Vladimir autor Alcérreca Huerta, Juan Carlos Doctor autor 20527 Mendoza, Edgar autor Silva, Rodolfo autor textengThe incorporation of new equations to extend the applicability of open-source computational fluid dynamics (CFD) software according to the user's needs must be complemented with code verification and validation with a representative case. This paper presents the development and validation of an OpenFOAM®-based solver suitable for simulating multiphase fluid flow considering three fluid phases with different densities and temperatures, i.e., two miscible liquids and air. A benchmark "dam-break" experiment was performed to validate the solver. Ten thermistors measured temperature variations in different locations of the experimental model and the temperature time series were compared against those of numerical probes in analogous locations. The accuracy of the temperature field assessment considered three different turbulence models: (a) zero-equation, (b) k-omega (Reynolds averaged simulation; RAS), and (c) large eddy simulation (LES). The simulations exhibit a maximum time-average relative and absolute errors of 9.3% and 3.1 K, respectively; thus, the validation tests proved to achieve an adequate performance of the numerical model. The solver developed can be applied in the modeling of thermal discharges into water bodies.The incorporation of new equations to extend the applicability of open-source computational fluid dynamics (CFD) software according to the user's needs must be complemented with code verification and validation with a representative case. This paper presents the development and validation of an OpenFOAM®-based solver suitable for simulating multiphase fluid flow considering three fluid phases with different densities and temperatures, i.e., two miscible liquids and air. A benchmark "dam-break" experiment was performed to validate the solver. Ten thermistors measured temperature variations in different locations of the experimental model and the temperature time series were compared against those of numerical probes in analogous locations. The accuracy of the temperature field assessment considered three different turbulence models: (a) zero-equation, (b) k-omega (Reynolds averaged simulation; RAS), and (c) large eddy simulation (LES). The simulations exhibit a maximum time-average relative and absolute errors of 9.3% and 3.1 K, respectively; thus, the validation tests proved to achieve an adequate performance of the numerical model. The solver developed can be applied in the modeling of thermal discharges into water bodies.Adobe Acrobat profesional 6.0 o superiorDinámica de fluidos computacionalSoporte lógico libreTemperatura del aguaDisponible en líneaWaterhttps://www.mdpi.com/2073-4441/12/9/2581Acceso en línea sin restricciones
institution ECOSUR
collection Koha
country México
countrycode MX
component Bibliográfico
access En linea
En linea
databasecode cat-ecosur
tag biblioteca
region America del Norte
libraryname Sistema de Información Bibliotecario de ECOSUR (SIBE)
language eng
topic Dinámica de fluidos computacional
Soporte lógico libre
Temperatura del agua
Dinámica de fluidos computacional
Soporte lógico libre
Temperatura del agua
spellingShingle Dinámica de fluidos computacional
Soporte lógico libre
Temperatura del agua
Dinámica de fluidos computacional
Soporte lógico libre
Temperatura del agua
Rodríguez Ocampo, Paola Elizabeth autora
Ring, Michael autor
Hernández Fontes, Jassiel Vladimir autor
Alcérreca Huerta, Juan Carlos Doctor autor 20527
Mendoza, Edgar autor
Silva, Rodolfo autor
CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures
description The incorporation of new equations to extend the applicability of open-source computational fluid dynamics (CFD) software according to the user's needs must be complemented with code verification and validation with a representative case. This paper presents the development and validation of an OpenFOAM®-based solver suitable for simulating multiphase fluid flow considering three fluid phases with different densities and temperatures, i.e., two miscible liquids and air. A benchmark "dam-break" experiment was performed to validate the solver. Ten thermistors measured temperature variations in different locations of the experimental model and the temperature time series were compared against those of numerical probes in analogous locations. The accuracy of the temperature field assessment considered three different turbulence models: (a) zero-equation, (b) k-omega (Reynolds averaged simulation; RAS), and (c) large eddy simulation (LES). The simulations exhibit a maximum time-average relative and absolute errors of 9.3% and 3.1 K, respectively; thus, the validation tests proved to achieve an adequate performance of the numerical model. The solver developed can be applied in the modeling of thermal discharges into water bodies.
format Texto
topic_facet Dinámica de fluidos computacional
Soporte lógico libre
Temperatura del agua
author Rodríguez Ocampo, Paola Elizabeth autora
Ring, Michael autor
Hernández Fontes, Jassiel Vladimir autor
Alcérreca Huerta, Juan Carlos Doctor autor 20527
Mendoza, Edgar autor
Silva, Rodolfo autor
author_facet Rodríguez Ocampo, Paola Elizabeth autora
Ring, Michael autor
Hernández Fontes, Jassiel Vladimir autor
Alcérreca Huerta, Juan Carlos Doctor autor 20527
Mendoza, Edgar autor
Silva, Rodolfo autor
author_sort Rodríguez Ocampo, Paola Elizabeth autora
title CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures
title_short CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures
title_full CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures
title_fullStr CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures
title_full_unstemmed CFD Simulations of Multiphase Flows interaction of miscible liquids with different temperatures
title_sort cfd simulations of multiphase flows interaction of miscible liquids with different temperatures
url https://www.mdpi.com/2073-4441/12/9/2581
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