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Conjugate heat transfer les of thermal mixing in a T-junction
Antti Timperi
Research output
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Contribution to journal
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Article
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Scientific
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peer-review
30
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Engineering
Pipe Wall
100%
Temperature Fluctuation
100%
Good Agreement
50%
Negligible Effect
50%
Nuclear Power Plant
50%
Coarse Mesh
50%
Reynolds Stress
50%
Thermal Inertia
50%
Fluctuating Quantity
50%
Cold Fluid
50%
Fully Developed Flow
50%
Hot Fluid
50%
Plexiglass
50%
Walls (Structural Partitions)
50%
Mesh Velocity
50%
Thermal Fatigue
50%
Vortex
50%
Boundary Condition
50%
Flow Velocity
50%
Keyphrases
T-junction
100%
Thermal Mixing
100%
Conjugate Heat Transfer
100%
Near-wall
60%
Temperature Fluctuation
40%
Pipe Wall
40%
Fluctuation Intensity
40%
Turbulent Inlet
40%
Nuclear Power Plant
20%
Large Eddy Simulation
20%
Negligible Effects
20%
Wall Condition
20%
Wall Temperature
20%
Turbulent Mixing
20%
Hot Fluid
20%
High Cycle Thermal Fatigue
20%
Cold Fluid
20%
Coarse Mesh
20%
Flow Velocity
20%
Pipe Inner Surface
20%
Thermal Inertia
20%
Fluid Walls
20%
Reynolds Stress
20%
Inlet Boundary Condition
20%
Vortex Method
20%
Wall Boundary Condition
20%
Plexiglas
20%
Logarithmic Layer
20%
Transfer Scenario
20%
Fully Developed Flow
20%
INIS
walls
100%
heat transfer
100%
mixing
100%
junctions
100%
pipes
50%
velocity
25%
fluids
25%
fluctuations
25%
simulation
12%
layers
12%
comparative evaluations
12%
surfaces
12%
distribution
12%
errors
12%
nuclear power plants
12%
large-eddy simulation
12%
boundary conditions
12%
yields
12%
spectra
12%
steels
12%
vortices
12%
reynolds number
12%
thermal fatigue
12%
inertia
12%
plexiglas
12%