This research is involved with the implementation of advanced computational schemes based on large eddy simulations (LES) and direct numerical simulations (DNS) to study the phenomenon of mixing and its coupling with chemical reactions in compressible turbulent flows. In the efforts related to LES, a research program to extend the present capabilities of this method was initiated for the treatment of chemically reacting flows. In the DNS efforts, the focus is on detailed investigations of the effects of compressibility, heat release, and non-equilibrium kinetics modelings in high speed reacting flows. Emphasis was on the simulations of simple flows, namely homogeneous compressible flows, and temporally developing high speed mixing layers
We study a class of chemically reacting, spatially evolving, supersonic mixing layers via large eddy...
This document is divided into two parts. Part A, on turbulent transport of chemical species in compr...
We study a class of chemically reacting, spatially evolving, supersonic mixing layers via large eddy...
This research is involved with the implementations of advanced computational schemes based on large ...
The principal objective is to extend the boundaries within which large eddy simulations (LES) and di...
Work on understanding the mechanisms of mixing and reaction in high speed turbulent reacting flows w...
The main objective is to extend the boundaries within which large eddy simulations (LES) and direct ...
The primary objective of this research is to extend current capabilities of Large Eddy Simulations (...
The objective of this research is to continue our efforts in advancing the state of knowledge in Lar...
The objective of this research is to make use of Large Eddy Simulation (LES) and Direct Numerical Si...
The purpose of this research is to continue our efforts in advancing the state of knowledge in large...
The objectives of this research are: (1) to develop and implement a new methodology for large eddy s...
The Large-Eddy Simulation technique of compressible flows and the effect of compressibility on mixin...
This program focused on fundamental investigations of mixing, chemical-reaction, and combustion proc...
A Large-Eddy Simulation (LES) methodology adapted to the resolution of high Reynolds number turbulen...
We study a class of chemically reacting, spatially evolving, supersonic mixing layers via large eddy...
This document is divided into two parts. Part A, on turbulent transport of chemical species in compr...
We study a class of chemically reacting, spatially evolving, supersonic mixing layers via large eddy...
This research is involved with the implementations of advanced computational schemes based on large ...
The principal objective is to extend the boundaries within which large eddy simulations (LES) and di...
Work on understanding the mechanisms of mixing and reaction in high speed turbulent reacting flows w...
The main objective is to extend the boundaries within which large eddy simulations (LES) and direct ...
The primary objective of this research is to extend current capabilities of Large Eddy Simulations (...
The objective of this research is to continue our efforts in advancing the state of knowledge in Lar...
The objective of this research is to make use of Large Eddy Simulation (LES) and Direct Numerical Si...
The purpose of this research is to continue our efforts in advancing the state of knowledge in large...
The objectives of this research are: (1) to develop and implement a new methodology for large eddy s...
The Large-Eddy Simulation technique of compressible flows and the effect of compressibility on mixin...
This program focused on fundamental investigations of mixing, chemical-reaction, and combustion proc...
A Large-Eddy Simulation (LES) methodology adapted to the resolution of high Reynolds number turbulen...
We study a class of chemically reacting, spatially evolving, supersonic mixing layers via large eddy...
This document is divided into two parts. Part A, on turbulent transport of chemical species in compr...
We study a class of chemically reacting, spatially evolving, supersonic mixing layers via large eddy...