The implementation and the combination of advanced boundary conditions and subgrid scale models for Large Eddy Simulations are presented. The goal is to perform reliable cold flow LES simulations in complex geometries, such as in the cylinders of internal combustion engines. The implementation of an inlet boundary condition for synthetic turbulence generation and of two subgrid scale models, the local Dynamic Smagorinsky and the Wall-Adapting Local Eddy-viscosity SGS model ( WALE) is described. The WALE model is based on the square of the velocity gradient tensor and it accounts for the effects of both the strain and the rotation rate of the smallest resolved turbulent fl...
Accurate computations of turbulent flows using the Large-Eddy Simulation (LES) technique with an app...
We report large-eddy simulation (LES) of turbulent channel flow. This LES neither resolves nor parti...
Turbulent wall-bounded flows are commonly encountered in engineering practice and are of considerabl...
The implementation and the combination of advanced boundary conditions and subgrid scale m...
none4The implementation and the combination of advanced boundary conditions and subgrid scale models...
The implementation and the combination of advanced boundary conditions and subgrid scale models for ...
The implementation and the combination of advanced boundary conditions and subgrid scale models for ...
Large Eddy Simulation (LES) represents nowadays one of the most promising techniques for the evaluat...
The complicated turbulence structures in wall-bounded flows require accurate subgrid scale, SGS, mod...
Turbulent flows present structures with a wide range of scales. The computation of the complete phys...
The increasing of the overall engine performance requires the investigation of the unsteady engine p...
In this study, the explicit algebraic sub-grid scale (SGS) model (EAM) has been extensively validate...
The wall-adapting local eddy-viscosity (WALE) model in large-eddy simulation can well predict wall-b...
none2The increasing of the overall engine performance requires the investigation of the unsteady eng...
Large-eddy simulation (LES) is a highly accurate turbulence modelling approach in which a wide range...
Accurate computations of turbulent flows using the Large-Eddy Simulation (LES) technique with an app...
We report large-eddy simulation (LES) of turbulent channel flow. This LES neither resolves nor parti...
Turbulent wall-bounded flows are commonly encountered in engineering practice and are of considerabl...
The implementation and the combination of advanced boundary conditions and subgrid scale m...
none4The implementation and the combination of advanced boundary conditions and subgrid scale models...
The implementation and the combination of advanced boundary conditions and subgrid scale models for ...
The implementation and the combination of advanced boundary conditions and subgrid scale models for ...
Large Eddy Simulation (LES) represents nowadays one of the most promising techniques for the evaluat...
The complicated turbulence structures in wall-bounded flows require accurate subgrid scale, SGS, mod...
Turbulent flows present structures with a wide range of scales. The computation of the complete phys...
The increasing of the overall engine performance requires the investigation of the unsteady engine p...
In this study, the explicit algebraic sub-grid scale (SGS) model (EAM) has been extensively validate...
The wall-adapting local eddy-viscosity (WALE) model in large-eddy simulation can well predict wall-b...
none2The increasing of the overall engine performance requires the investigation of the unsteady eng...
Large-eddy simulation (LES) is a highly accurate turbulence modelling approach in which a wide range...
Accurate computations of turbulent flows using the Large-Eddy Simulation (LES) technique with an app...
We report large-eddy simulation (LES) of turbulent channel flow. This LES neither resolves nor parti...
Turbulent wall-bounded flows are commonly encountered in engineering practice and are of considerabl...