Autor/es de la URV: | Cito, Salvatore / Fabregat Tomàs, Alexandre / Pallarés Curto, Jorge María |
Autor según el artículo: | Pallares J., Fabregat A., Lavrinenko A., Marques N., Santos B., Mosca G., Vega P. O., Ravnik J., Vovk N., Fraga B., Monka A., Martínez M., Mestre N., de Souza F. J., Douglas, Fontes H., Jüngling N., Niessner J., Castilla R., Garcia Vílchez M., Fletcher D., Inthavong K., Hriberšek M., Steinmann P., Wedel J., Duchaine F., Sankurantripati S., Amari L., Janiga G., Marchioli C., Cito S. |
Direcció de correo del autor: | salvatore.cito@urv.cat alexandre.fabregat@urv.cat jordi.pallares@urv.cat |
Identificador del autor: | 0000-0001-7626-3374 0000-0002-6032-2605 0000-0003-0305-2714 |
Año de publicación de la revista: | 2025 |
Tipo de publicación: | Journal Publications |
Referencia de l'ítem segons les normes APA: | Pallares J., Fabregat A., Lavrinenko A., Marques N., Santos B., Mosca G., Vega P. O., Ravnik J., Vovk N., Fraga B., Monka A., Martínez M., Mestre N., (2025). Computational fluid dynamics challenge on indoor dispersion of pathogen-laden aerosols. Physics Of Fluids, 37(2), 025226-. DOI: 10.1063/5.0252665 |
Referencia al articulo segun fuente origial: | Physics Of Fluids. 37 (2): 025226- |
Resumen: | This paper presents and discusses the results of the “2024 International Computational Fluid Dynamics Challenge on the long-range indoor dispersion of pathogen-laden aerosols” aimed at assessing the ability of different computational codes and turbulence models to reproduce the dispersion of particles produced by a turbulent natural convection flow enclosed in a room sized cubical cavity. A total of 12 research groups from ten different countries have conducted 15 simulations of the same flow configuration by solving the Reynolds averaged Navier–Stokes (RANS) equations, the unsteady Reynolds averaged Navier–Stokes (URANS) equations or using scale adaptive simulations (SAS), large-eddy simulations (LES), or hybrid (URANS-LES) techniques. Results for the velocity field and the particle dispersion provided by the different simulations are compared extensively, including the reference results provided by a direct numerical simulation (DNS). In general, LES and hybrid methods reproduce the time-averaged flow field correctly, the spatial distribution of the turbulence kinetic energy, and the particle dispersion. The performance of SAS is similar to that of LES and hybrid methods while the predictions of the RANS and URANS simulations exhibit larger deviations with respect to DNS. In general, the particle dispersion is better reproduced by simulations that capture correctly the spatial distribution of the turbulence kinetic energy. |
DOI del artículo: | 10.1063/5.0252665 |
Enlace a la fuente original: | https://pubs.aip.org/aip/pof/article-abstract/37/2/025226/3337454/Computational-fluid-dynamics-challenge-on-indoor?redirectedFrom=fulltext |
Versión del articulo depositado: | info:eu-repo/semantics/acceptedVersion |
Acceso a la licencia de uso: | https://creativecommons.org/licenses/by/3.0/es/ |
Departamento: | Enginyeria Mecànica |
URL Documento de licencia: | https://repositori.urv.cat/ca/proteccio-de-dades/ |
Áreas temáticas: | Química Physics, fluids & plasmas Mechanics of materials Mechanics Mechanical engineering Materiais Matemática / probabilidade e estatística Interdisciplinar Geociências Fluid flow and transfer processes Engineering (miscellaneous) Engenharias iv Engenharias iii Engenharias ii Engenharias i Condensed matter physics Computational mechanics Ciências biológicas i Ciência da computação Astronomia / física |
Entidad: | Universitat Rovira i Virgili |
Fecha de alta del registro: | 2025-03-08 |
Descripción: | This paper presents and discusses the results of the “2024 International Computational Fluid Dynamics Challenge on the long-range indoor dispersion of pathogen-laden aerosols” aimed at assessing the ability of different computational codes and turbulence models to reproduce the dispersion of particles produced by a turbulent natural convection flow enclosed in a room sized cubical cavity. A total of 12 research groups from ten different countries have conducted 15 simulations of the same flow configuration by solving the Reynolds averaged Navier–Stokes (RANS) equations, the unsteady Reynolds averaged Navier–Stokes (URANS) equations or using scale adaptive simulations (SAS), large-eddy simulations (LES), or hybrid (URANS-LES) techniques. Results for the velocity field and the particle dispersion provided by the different simulations are compared extensively, including the reference results provided by a direct numerical simulation (DNS). In general, LES and hybrid methods reproduce the time-averaged flow field correctly, the spatial distribution of the turbulence kinetic energy, and the particle dispersion. The performance of SAS is similar to that of LES and hybrid methods while the predictions of the RANS and URANS simulations exhibit larger deviations with respect to DNS. In general, the particle dispersion is better reproduced by simulations that capture correctly the spatial distribution of the turbulence kinetic energy. |
Tipo: | Journal Publications info:eu-repo/semantics/acceptedVersion |
Coautor: | Enginyeria Mecànica Universitat Rovira i Virgili |
Títol: | Computational fluid dynamics challenge on indoor dispersion of pathogen-laden aerosols |
Materia: | Computational Mechanics,Condensed Matter Physics,Engineering (Miscellaneous),Fluid Flow and Transfer Processes,Mechanical Engineering,Mechanics,Mechanics of Materials,Physics, Fluids & Plasmas Química Physics, fluids & plasmas Mechanics of materials Mechanics Mechanical engineering Materiais Matemática / probabilidade e estatística Interdisciplinar Geociências Fluid flow and transfer processes Engineering (miscellaneous) Engenharias iv Engenharias iii Engenharias ii Engenharias i Condensed matter physics Computational mechanics Ciências biológicas i Ciência da computação Astronomia / física |
Fecha: | 2025 |
Idioma: | en |
Autor: | Pallares J., Fabregat A., Lavrinenko A., Marques N., Santos B., Mosca G., Vega P. O., Ravnik J., Vovk N., Fraga B., Monka A., Martínez M., Mestre N., de Souza F. J., Douglas, Fontes H., Jüngling N., Niessner J., Castilla R., Garcia Vílchez M., Fletcher D., Inthavong K., Hriberšek M., Steinmann P., Wedel J., Duchaine F., Sankurantripati S., Amari L., Janiga G., Marchioli C., Cito S. |
Derechos: | info:eu-repo/semantics/openAccess |
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