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An application of octant analysis to turbulent and transitional flow data
R. J. Volino
,
T. W. Simon
Mechanical Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
26
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Scopus citations
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Engineering
Boundary Layer
100%
Data Flow
100%
Turbulent Boundary Layer
100%
Length Scale
50%
Relative Importance
50%
Potential Application
50%
Signal Flow
50%
Energy Cascade
50%
Heated Wall
50%
Turbulent Kinetic Energy
50%
Stream Velocity
50%
Eddy Structure
50%
Eddy Motion
50%
Boundary Layer Transition
50%
Flat Plate
50%
Heat Flux
50%
Turbulent Shear Stress
50%
Keyphrases
Turbulent Flow
100%
Flow Data
100%
Octant
100%
Octant Analysis
100%
Transitional Flow
100%
Turbulent Boundary Layers
28%
Streamwise Velocity
28%
Flat Surface
28%
Transition Model
14%
Boundary Layer Transition
14%
Relative Contribution
14%
Ejection
14%
Flat Plate
14%
Fully Developed
14%
Concave Wall
14%
Physical Processes
14%
Transitional Boundary Layer
14%
Multiple Length Scales
14%
Quantity of Interest
14%
Concave Surface
14%
Fully Turbulent
14%
Turbulent Kinetic Energy
14%
Turbulent Shear Stress
14%
Flow Signal
14%
Eddy Motion
14%
Flat Wall
14%
Eddy Structure
14%
Curved Surface
14%
Turbulent Heat Flux
14%
Incomplete Mixing
14%
Heated Wall
14%
Fluctuating Temperature
14%
Heated Boundary Layer
14%
Kinetic Energy Cascade
14%
Earth and Planetary Sciences
Turbulent Boundary Layer
100%
Boundary Layer
100%
Boundary Layer Transition
50%
Flat Plate
50%
Kinetic Energy
50%
Heat Flux
50%
Physical Process
50%
Chemical Engineering
Heat Flux
100%
Chemical Kinetics Characteristics
100%