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Noise simulations of supersonic hot jets for chevron nozzles
Yongle Du
, Philip J. Morris
Aerospace Engineering
Research output
:
Chapter in Book/Report/Conference proceeding
›
Conference contribution
12
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Scopus citations
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Dive into the research topics of 'Noise simulations of supersonic hot jets for chevron nozzles'. Together they form a unique fingerprint.
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Keyphrases
Noise Simulation
100%
Hot Jet
100%
Chevron Nozzle
100%
Chevron
75%
Nozzle
50%
Noise Prediction
50%
Interface Conditions
50%
Nozzle Geometry
50%
Block Interface
50%
Mesh Topology
50%
Operating Conditions
25%
Space-time Correlation
25%
Convection Velocity
25%
Jet Noise
25%
Noise Source
25%
Turbulence Intensity
25%
Two-point
25%
Simulation Approach
25%
Acoustic Analogy
25%
Jet Shear Layer
25%
Multigrid
25%
Noise Spectrum
25%
Mesh Size
25%
Permeable Surface
25%
Detached Eddy Simulation
25%
Tation
25%
Grid Generation
25%
Immersed Boundary Method
25%
Simulation Accuracy
25%
Dual-time Stepping
25%
NiTe
25%
Residual Smoothing
25%
Broadband Shock-associated Noise
25%
Structured Mesh
25%
Engineering
Interface Condition
100%
Correlation Time
50%
Computational Fluid Dynamics
50%
Good Agreement
50%
Centerline
50%
Multigrid
50%
Noise Source
50%
Shear Layer
50%
Singularities
50%
Turbulence Intensity
50%
Noise Spectra
50%
Permeable Surface
50%
Detached Eddy Simulation
50%
Convection Velocity
50%
Grid Generation
50%
Structured Mesh
50%
Dual Time
50%
Stepping Approach
50%
Residual Smoothing
50%
Mesh Size
50%
Material Science
Computational Fluid Dynamics
100%
Surface (Surface Science)
100%