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Generalized Theory of Acoustic Propagation in Porous Dissipative Media

The Journal of the Acoustical Society of America · 1962 · Vol. 34(9A) · pp. 1254–1264
M. A. Biot

Abstract

The theory of acoustic propagation in porous media is extended to include anisotropy, viscoelasticity, and solid dissipation. A more refined analysis of the relative motion of the fluid in the pores is also developed by introducing the concept of viscodynamic operational tensor. The nature of this operator is analyzed by applying variational and Lagrangian methods. Viscoelasticity and solid dissipation are introduced by applying the correspondence principle as derived from thermodynamics in earlier work by the author. Various dissipative models are discussed and the corresponding operators and relaxation spectra are derived. The physical chemistry of the multiphase porous medium including surface effects lies within the scope of the thermodynamic theory. The nature of thermoelastic dissipation and electrokinetic effects in relation to the thermodynamic theory is also brought out.

Ultrasonics and Acoustic Wave PropagationAcoustic Wave Phenomena ResearchAsphalt Pavement Performance EvaluationDissipative systemDissipationPorous mediumViscoelasticityThermoelastic dampingClassical mechanicsMixture theoryPhysicsElectrokinetic phenomenaIsotropy
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1,120
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References
The Elastic Coefficients of the Theory of Consolidation
Journal of Applied Mechanics · 1957 · 1,996 citations
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