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Flow in a commercial steel pipe
R. L. Pepe
, M. P. Schultz
, S. Bailey
,
M. Hultmark
, A. J. Smits
Mechanical & Aerospace Engineering
Civil & Environmental Engineering
High Meadows Environmental Institute
Princeton Materials Institute
Research output
:
Chapter in Book/Report/Conference proceeding
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Keyphrases
Reynolds number
100%
Commercial Steel
100%
Steel pipe
100%
Two-point
66%
Turbulence Intensity
66%
High Reynolds number
66%
Smooth Walls
66%
Princeton
33%
Turbulence
33%
Roughness Effect
33%
Pipe Flow
33%
Compressed Air
33%
Working Fluid
33%
Single Component
33%
Wall-bounded Flows
33%
Large-scale Motions
33%
Intensity Data
33%
Low Wavenumber
33%
Wall Turbulence
33%
One-point
33%
Spectral Data
33%
Hot-wire Probe
33%
Smooth pipe
33%
Turbulence Statistics
33%
Fully Developed Turbulent Flow
33%
Coherent Region
33%
Wirelength
33%
Rough Data
33%
Rough Flows
33%
Azimuthal Correlation
33%
Very Large Scale
33%
Engineering
Reynolds' Number
100%
Steel Pipe
100%
Azimuthal
66%
Turbulence Intensity
66%
High Reynolds Number
66%
Turbulent Flow
33%
Roughness Effect
33%
Pipeline Fluid Flow
33%
Single Component
33%
Wall Turbulence
33%
Fluid Momentum
33%
Scale Motion
33%
Hot-Wire Probe
33%
Rough Flow
33%
Compressed Air
33%