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Acoustic attenuation in three-component gas mixtures - Theory
Y. Dain
*
,
Richard M. Lueptow
*
Corresponding author for this work
Mechanical Engineering
Research output
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Article
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peer-review
71
Scopus citations
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INIS
mixtures
100%
relaxation
83%
attenuation
83%
gases
66%
nitrogen
50%
methane
50%
water vapor
50%
absorption
33%
concentration
33%
acoustics
33%
coupling
16%
temperature range 0273-0400 k
16%
shear
16%
dispersions
16%
degrees of freedom
16%
viscosity
16%
sound waves
16%
thermal conduction
16%
relaxation time
16%
energy exchange
16%
Physics
Methane
100%
Attenuation
50%
Molecular Relaxation
50%
Nitrogen
50%
Water Vapor
50%
Gases
50%
Acoustic Attenuation
33%
Mixtures
33%
Degrees of Freedom
16%
Room Temperature
16%
Adhesion
16%
Acoustic Wave
16%
Relaxation Time
16%
Energy Transfer
16%
Gas Mixture
16%
Calculation
16%
Fractions
16%
Acoustics
16%
Shears
16%
Moles
16%
Conductive Heat Transfer
16%
Chemistry
Nitrogen
50%
Vibrational Relaxation
50%
Gas
50%
Relaxation Frequency
33%
Ternary Mixture
33%
Concentration
33%
Mixture
33%
Thermal Conductivity
16%
Multicomponent Mixture
16%
Sound Property
16%
Ambient Reaction Temperature
16%
Procedure
16%
Relaxation
16%
Shear
16%
Viscosity
16%