The filtered density function (FDF) method is being extended for subgrid scale (SGS) closure as required in large eddy simulation (LES) of high speed turbulent reacting flows. The primary advantage of FDF is that the effects of SGS chemical reactions appear in a closed form. The suitable means of invoking FDF in high speed flows is via consideration of the SGS statistics of the energy, the pressure, the velocity and the scalar fields. This formulation is under way in which modeled stochastic differential equations are being de-veloped to account for the SGS transport of all of these fields. The simplest subset of this model considers the SGS transport of the scalar field. Results are presented of our latest LES of scalar mixing in a high sp...
A study is conducted to identify advantages and limitations of existing large-eddy simulation (LES) ...
Entropy transport equation is considered in large eddy simulation (LES) of turbulent flows. The irre...
AbstractA method for predicting filtered chemical species concentrations and filtered reaction rates...
A methodology termed the “filtered density function” (FDF) is developed and implemented for large ed...
The joint ``velocity-scalar' filtered density function (FDF) methodology is developed and implemente...
The objective of this research is to develop and implement new methodology for large eddy simulation...
Abstract. The application of large eddy simulation (LES) to turbulent reacting flow calculations is ...
Scalar mixing is an important phenomenon in many engineering application devices such as internal co...
The objective of this research is to improve and implement the filtered mass density function (FDF) ...
A new methodology based on filtered density function (FDF) is being developed for large eddy simulat...
A new computational filtered density function (FDF) methodology is developed for large\ud eddy simul...
An overview is presented of the recent developments in the application of large eddy simulation (LES...
A filtered density function (FDF) method suitable for chemically reactive flows is developed in the ...
Work on understanding the mechanisms of mixing and reaction in high speed turbulent reacting flows w...
The first part of this dissertation is concerned with implementation of the joint ``velocity-scalar ...
A study is conducted to identify advantages and limitations of existing large-eddy simulation (LES) ...
Entropy transport equation is considered in large eddy simulation (LES) of turbulent flows. The irre...
AbstractA method for predicting filtered chemical species concentrations and filtered reaction rates...
A methodology termed the “filtered density function” (FDF) is developed and implemented for large ed...
The joint ``velocity-scalar' filtered density function (FDF) methodology is developed and implemente...
The objective of this research is to develop and implement new methodology for large eddy simulation...
Abstract. The application of large eddy simulation (LES) to turbulent reacting flow calculations is ...
Scalar mixing is an important phenomenon in many engineering application devices such as internal co...
The objective of this research is to improve and implement the filtered mass density function (FDF) ...
A new methodology based on filtered density function (FDF) is being developed for large eddy simulat...
A new computational filtered density function (FDF) methodology is developed for large\ud eddy simul...
An overview is presented of the recent developments in the application of large eddy simulation (LES...
A filtered density function (FDF) method suitable for chemically reactive flows is developed in the ...
Work on understanding the mechanisms of mixing and reaction in high speed turbulent reacting flows w...
The first part of this dissertation is concerned with implementation of the joint ``velocity-scalar ...
A study is conducted to identify advantages and limitations of existing large-eddy simulation (LES) ...
Entropy transport equation is considered in large eddy simulation (LES) of turbulent flows. The irre...
AbstractA method for predicting filtered chemical species concentrations and filtered reaction rates...