On the reduction of a 3D CFD combustion model to build a physical 0D model for simulating heat release, knock and pollutants in Sl engines (Record no. 170250)

MARC details
000 -LEADER
fixed length control field 03023nab a2200205 4500
008 - CÓDIGOS DE INFORMACIÓN DE LONGITUD FIJA - INFORMACIÓN GENERAL
Campo de control de longitud fija 260224s2009 xxu
100 1# - RESPONSABLE PERSONAL
Apellido, Nombre Richard, S.
9 (RLIN) 41711
100 1# - RESPONSABLE PERSONAL
Apellido, Nombre Bougrine, S.
9 (RLIN) 41712
100 1# - RESPONSABLE PERSONAL
Apellido, Nombre Font, G.
9 (RLIN) 41713
245 00 - TITULO
Título On the reduction of a 3D CFD combustion model to build a physical 0D model for simulating heat release, knock and pollutants in Sl engines
260 ## - PUBLICACION, DISTRIBUCION, ETC
Fecha de publicación, distribución, etc. mayo/jun. 2009
270 ## - FECHA DE CARGA
Fecha de carga 03/08/2009 ; 03/08/2009
300 ## - DESCRIPCION FISICA
Otra extensión 19 p. ; 223-242
520 ## - RESUMEN, ETC
Resumen Transcripción del resúmen publicado por el autor: In the automotive industry, today's major objectives concern the reduction of pollutant emissions and fuel consumption while improving performance and driveability. For this purpose, during the last decade, the classical engine has evolved towards a very complex system combining many hi-tech components with advanced control strategies. Optimizing the whole engine system and controlling its behaviour has then become a real challenge for car manufacturers. In this context, powertrain simulation tools have been shown to be an undisputable support during all stages of the engine development from concept design to control strategies development and calibration. However these tools require sophisticated models to be efficient, especially in the combustion chamber where combustion and pollutant formation processes take place. This paper presents a 0D physical combustion model devoted to the prediction of heat release, knock and pollutants in SI engines. The originality of the model derives from the fact it is based on the reduction of the 3D CFD E-CFM (Extended Coherent Flame Model) model developed at IFP. The CFM formalism distinguishes two zones: the fresh and the burnt gases, which are separated by a flame front and are both described by their temperature, mass and composition. The proposed model is an important evolution of the CFM-1D model previously published. It computes the rate of consumption of the fresh gases and is based on the calculation of the flame front surface using the real engine geometry and a 0D derivation of the flame surface density approach. Pollutants (CO and NOx) are computed both through the flame front an within the burnt gases using a reduced kinetic scheme and a classical extended Zel'dovitch mechanism. The knock timing calculation is performed in the fresh gases zone describing the evolution of an auto-ignition precursor and a simple correlation is used to estimate the corresponding knock intensity. The whole model is validated against experimental data at several steady state operating points for a single-cylinder engine. Parametric variations around optimal engine settings are also performed. A good agreement with experiments is observed, showing the interest of reducing 3D CFD models to build predictive 0D models for engine system simulations.
581 ## - ESTADO DE COLECCIÓN
Estado de colección 3
773 0# - CORRECCIÓN
Título Oil and Gas Science and Technology
Partes relacionadas 64
942 ## - DESC. DE MATERIAL
Tipo de item KOHA Artículo de Revista
Holdings
Biblioteca propietaria Biblioteca actual Fecha de adquisición Inventario Total de préstamos Inventario Fecha de carga Tipo de item KOHA
Biblioteca Alejandro Angel Bulgheroni Biblioteca Alejandro Angel Bulgheroni 05/03/2026 200045077   200045077 05/03/2026 Artículo de Revista


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