We consider interaction of a normally incident time-harmonic longitudinal plane wave with a circular crack imbedded in a porous medium governed by Biot's equations of dynamic poroelasticity. The problem is formulated in cylindrical coordinates as a system of dual integral equations for the Hankel transform of the wave field, which is then reduced to a single Fredholm integral equation of the second kind. The solution of this equation yields elastic wave dispersion and attenuation in a medium containing a random istribution of aligned cracks. These dissipation effects are caused by wave induced fluid flow between pores and cracks. 2006 American Institute of Physics
This work is devoted to the numerical analysis of surface waves in two-component saturated poroelas...
Wave propagation in porous media is of interest in various diversified areas of science and engineer...
While it has been recognized that a large amplitude incident wave upon a dry fracture can exhibit no...
Physical properties of many natural and man-made materials can be modelled using the concept of poro...
AbstractAn application of the Biot’s theory to the diffraction problem of plane harmonic dilatationa...
When a porous medium is permeated by open fractures, wave-induced flow between pores and fractures c...
Wave-induced fluid flow generates a dominant attenuation mechanism in porous media. It consists of e...
Naturally fractured reservoirs have attracted an increased interest of exploration and production ge...
When a porous medium is permeated by open fractures, wave-induced flow between pores and fractures c...
Natural fractures in hydrocarbon reservoirs can cause significant seismic attenuation and dispersion...
A detailed analysis of the relationship between elastic waves in inhomogeneous, porous media and the...
AbstractApplying the implicit finite difference approximation of the time derivative term, the diffu...
Intersonic crack propagation takes place in an elastic fluid-saturated porous solid under Mode I loa...
Rock containing a compliant, fluid-filled fracture can be viewed as one case of heterogeneous poroel...
Wave propagation in saturated porous media is investigated in the framework of two models, a theoret...
This work is devoted to the numerical analysis of surface waves in two-component saturated poroelas...
Wave propagation in porous media is of interest in various diversified areas of science and engineer...
While it has been recognized that a large amplitude incident wave upon a dry fracture can exhibit no...
Physical properties of many natural and man-made materials can be modelled using the concept of poro...
AbstractAn application of the Biot’s theory to the diffraction problem of plane harmonic dilatationa...
When a porous medium is permeated by open fractures, wave-induced flow between pores and fractures c...
Wave-induced fluid flow generates a dominant attenuation mechanism in porous media. It consists of e...
Naturally fractured reservoirs have attracted an increased interest of exploration and production ge...
When a porous medium is permeated by open fractures, wave-induced flow between pores and fractures c...
Natural fractures in hydrocarbon reservoirs can cause significant seismic attenuation and dispersion...
A detailed analysis of the relationship between elastic waves in inhomogeneous, porous media and the...
AbstractApplying the implicit finite difference approximation of the time derivative term, the diffu...
Intersonic crack propagation takes place in an elastic fluid-saturated porous solid under Mode I loa...
Rock containing a compliant, fluid-filled fracture can be viewed as one case of heterogeneous poroel...
Wave propagation in saturated porous media is investigated in the framework of two models, a theoret...
This work is devoted to the numerical analysis of surface waves in two-component saturated poroelas...
Wave propagation in porous media is of interest in various diversified areas of science and engineer...
While it has been recognized that a large amplitude incident wave upon a dry fracture can exhibit no...