Computation of flow past high speed vehicles requires the use of a reliable turbulence model. Unfortunately, most of the turbulence models are developed for incompressible flows. Application of these models directly to high speed boundary layers with large density gradients can lead to significant errors in prediction of skin friction. Several compressibility corrections have been suggested in literature to predict these turbulent flows at high Mach numbers. In the present work, we have used two such corrections for the Spalart-Allmaras turbulence model and studied their performance at high angles-of-attack. Flow past an ogive cylinder is considered for the study
The basic objective of this research was to identify, develop and recommend turbulence models which ...
A good knowledge of the turbulence structure, wall heat transfer, and friction in turbulent boundary...
Shock-wave boundary layer interactions are ubiquitous in high speed intakes and are responsible for ...
AbstractThe Spalart-Allmaras (S-A) turbulence model, the shear-stress transport (SST) turbulence mod...
This paper presents a correction of the Spalart-Allmaras turbulence model to account for the compres...
The Spalart and Allmaras turbulence model has been implemented in a finite volume code using an impl...
The objective of this research is to assess the performance of two popularReynolds-averaged Navier-S...
Man has strived to make objects fly faster, first from subsonic to supersonic and then to hypersonic...
A study is conducted to perform Reynolds-averaged Navier?Stokes (RANS) simulations for hypersonic fl...
A two-equation turbulence model was extended to be applicable for compressible flows. A compressibil...
The following grant objectives were delineated in the proposal to NASA: to offer course work in comp...
Turbulence models are necessary in numerical simulations because of the impracticality of computing ...
Compressibility effects in a high speed turbulent flow were examined experimentally within a novel p...
The performance of two popular turbulence models, the Spalart-Allmaras model and Menter s SST model,...
Development of improved turbulence closure models for compressible fluid flow simulations requires b...
The basic objective of this research was to identify, develop and recommend turbulence models which ...
A good knowledge of the turbulence structure, wall heat transfer, and friction in turbulent boundary...
Shock-wave boundary layer interactions are ubiquitous in high speed intakes and are responsible for ...
AbstractThe Spalart-Allmaras (S-A) turbulence model, the shear-stress transport (SST) turbulence mod...
This paper presents a correction of the Spalart-Allmaras turbulence model to account for the compres...
The Spalart and Allmaras turbulence model has been implemented in a finite volume code using an impl...
The objective of this research is to assess the performance of two popularReynolds-averaged Navier-S...
Man has strived to make objects fly faster, first from subsonic to supersonic and then to hypersonic...
A study is conducted to perform Reynolds-averaged Navier?Stokes (RANS) simulations for hypersonic fl...
A two-equation turbulence model was extended to be applicable for compressible flows. A compressibil...
The following grant objectives were delineated in the proposal to NASA: to offer course work in comp...
Turbulence models are necessary in numerical simulations because of the impracticality of computing ...
Compressibility effects in a high speed turbulent flow were examined experimentally within a novel p...
The performance of two popular turbulence models, the Spalart-Allmaras model and Menter s SST model,...
Development of improved turbulence closure models for compressible fluid flow simulations requires b...
The basic objective of this research was to identify, develop and recommend turbulence models which ...
A good knowledge of the turbulence structure, wall heat transfer, and friction in turbulent boundary...
Shock-wave boundary layer interactions are ubiquitous in high speed intakes and are responsible for ...