Statistical modeling of the gas–liquid interface using geometrical variables: Toward a unified description of the disperse and separated phase flows
•Statistical formalism for gas–liquid interface based on geometrical properties.•Link of local interface geometry with NDF of objects using topological invariants.•Algorithm to compute average geometrical properties preserving the topological invariants.•Assessment on DNS post-processing with and wi...
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| Published in: | International journal of multiphase flow Vol. 120; p. 103084 |
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| Main Authors: | , , , , , |
| Format: | Journal Article |
| Language: | English |
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01.11.2019
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| ISSN: | 0301-9322, 1879-3533 |
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| Abstract | •Statistical formalism for gas–liquid interface based on geometrical properties.•Link of local interface geometry with NDF of objects using topological invariants.•Algorithm to compute average geometrical properties preserving the topological invariants.•Assessment on DNS post-processing with and without topological changes.•NDF obtained for non-spherical objects in the proposed geometrical phase space.
In this work, we investigate an original strategy in order to derive a statistical modeling of the interface in gas–liquid two-phase flows through geometrical variables. The contribution is two-fold. First it participates in the theoretical design of a unified reduced-order model for the description of two regimes: a disperse phase in a carrier fluid and two separated phases. The first idea is to propose a statistical description of the interface relying on geometrical properties, such as the mean and Gauss curvatures, and to define an associated Surface Density Function (SDF). The second main idea consists in using such a formalism in the disperse case, where a clear link is proposed between local statistics of the interface and the statistics of countable objects, such as a number density function. To this end we make essential the use of topological invariants in geometry through the Gauss-Bonnet formula. This strategy strictly includes the works conducted on sprays of spherical droplets, but it also yields a statistical treatment of populations of non-spherical objects, such as ligaments, as long as they are homeomorphic to a sphere. Second, we propose an original statistical post-processing of DNS data of interfacial flows. Starting from the proposed theoretical approach, we identify a kernel for the spatial averaging of geometrical quantities which preserves the topological invariants. Coupled to a new algorithm for the evaluation of the surface and its curvatures, that also preserves these invariants, we analyze two sets of DNS results obtained with the ARCHER code from CORIA, with and without topological changes, and assess the approach. Indeed, this procedure allows us to transform the interfacial information provided by a Level-Set function into a number distribution of a collection of objects in the proper geometrical phase space. |
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| AbstractList | •Statistical formalism for gas–liquid interface based on geometrical properties.•Link of local interface geometry with NDF of objects using topological invariants.•Algorithm to compute average geometrical properties preserving the topological invariants.•Assessment on DNS post-processing with and without topological changes.•NDF obtained for non-spherical objects in the proposed geometrical phase space.
In this work, we investigate an original strategy in order to derive a statistical modeling of the interface in gas–liquid two-phase flows through geometrical variables. The contribution is two-fold. First it participates in the theoretical design of a unified reduced-order model for the description of two regimes: a disperse phase in a carrier fluid and two separated phases. The first idea is to propose a statistical description of the interface relying on geometrical properties, such as the mean and Gauss curvatures, and to define an associated Surface Density Function (SDF). The second main idea consists in using such a formalism in the disperse case, where a clear link is proposed between local statistics of the interface and the statistics of countable objects, such as a number density function. To this end we make essential the use of topological invariants in geometry through the Gauss-Bonnet formula. This strategy strictly includes the works conducted on sprays of spherical droplets, but it also yields a statistical treatment of populations of non-spherical objects, such as ligaments, as long as they are homeomorphic to a sphere. Second, we propose an original statistical post-processing of DNS data of interfacial flows. Starting from the proposed theoretical approach, we identify a kernel for the spatial averaging of geometrical quantities which preserves the topological invariants. Coupled to a new algorithm for the evaluation of the surface and its curvatures, that also preserves these invariants, we analyze two sets of DNS results obtained with the ARCHER code from CORIA, with and without topological changes, and assess the approach. Indeed, this procedure allows us to transform the interfacial information provided by a Level-Set function into a number distribution of a collection of objects in the proper geometrical phase space. In this work, we investigate an original strategy in order to derive a statistical modeling of the interface in gas-liquid two-phase flows through geometrical variables. The contribution is twofold. First it participates in the theoretical design of a unified reduced-order model for the description of two regimes: a disperse phase in a carrier fluid and two separated phases. The first idea is to propose a statistical description of the interface relying on geometrical properties such as the mean and Gauss curvatures and define a Surface Density Function (SDF). The second main idea consists in using such a formalism in the disperse case, where a clear link is proposed between local statistics of the interface and the statistics on objects, such as the number density function in Williams-Boltzmann equation for droplets. This makes essential the use of topolog-ical invariants in geometry through the Gauss-Bonnet formula and allows to include the works conducted on sprays of spherical droplets. It yields a statistical treatment of populations of non-spherical objects such as ligaments, as long as they are home-omorphic to a sphere. Second, it provides an original angle and algorithm in order to build statistics from DNS data of interfacial flows. From the theoretical approach, we identify a kernel for the spatial averaging of geometrical quantities preserving the topological invariants. Coupled to a new algorithm for the evaluation of curvatures and surface that preserves these invariants, we analyze two sets of DNS results conducted with the ARCHER code from CORIA with and without topological changes and assess the approach. |
| ArticleNumber | 103084 |
| Author | Florence, Drui Adam, Larat Thibault, Ménard Marc, Massot Stéphane, de Chaisemartin Mohamed, Essadki |
| Author_xml | – sequence: 1 givenname: Essadki surname: Mohamed fullname: Mohamed, Essadki organization: IFP Energies Nouvelles, 1–4 Avenue du Bois Préau, Rueil-Malmaison 92852, France – sequence: 2 givenname: Drui surname: Florence fullname: Florence, Drui organization: EM2C, UPR 288 - CNRS, CentraleSupélec, Université Paris-Saclay, 3, rue Joliot-Curie Gif-sur-Yvette 91190 France – sequence: 3 givenname: de Chaisemartin surname: Stéphane fullname: Stéphane, de Chaisemartin organization: IFP Energies Nouvelles, 1–4 Avenue du Bois Préau, Rueil-Malmaison 92852, France – sequence: 4 givenname: Larat surname: Adam fullname: Adam, Larat organization: EM2C, UPR 288 - CNRS, CentraleSupélec, Université Paris-Saclay, 3, rue Joliot-Curie Gif-sur-Yvette 91190 France – sequence: 5 givenname: Ménard surname: Thibault fullname: Thibault, Ménard organization: CORIA, UMR 6614 - Normandie Université, CNRS, Université et INSA de Rouen, Site Universitaire du Madrillet, BP 12, Saint-Etienne-du-Rouvray cedex 76801, France – sequence: 6 givenname: Massot surname: Marc fullname: Marc, Massot email: marc.massot@polytechnique.edu organization: EM2C, UPR 288 - CNRS, CentraleSupélec, Université Paris-Saclay, 3, rue Joliot-Curie Gif-sur-Yvette 91190 France |
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| Keywords | surface and number density function 76A99 76T10 disperse/separated phases 35Q35 65D99 computational geometry Gauss-Bonnet formula 53A17 gas-liquid interface moments method Gauss- Bonnet formula surface and number density function 2010 MSC: 76T10 |
| Language | English |
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| SubjectTerms | computational geometry Differential Geometry disperse/separated phases Engineering Sciences Fluid mechanics gas-liquid interface Gauss-Bonnet formula Mathematics Mechanics moments method Numerical Analysis Physics Reactive fluid environment surface and number density function |
| Title | Statistical modeling of the gas–liquid interface using geometrical variables: Toward a unified description of the disperse and separated phase flows |
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