In the present paper, the equation of motion for an incompressible transversely isotropic fibre-reinforced elastic solid is derived in terms of a scalar function. The general solution of the equation of motion is obtained, which satisfies the required radiation condition. The appropriate impedance boundary conditions are also satisfied by the solution to obtain the required explicit secular equation for the Rayleigh wave speed. The numerical values of non-dimensional speed of a Rayleigh wave are obtained with the application of Iteration method. The dependence of the non-dimensional wave speed on non-dimensional material parameter and impedance parameters is shown graphically
The present paper deals with the propagation of Rayleigh waves in isotropic homogeneous elastic half...
In this paper, the influence of anisotropy of the solid skeleton on the propagation characteristic o...
In this paper the Rayleigh wave equation has beensimplified to two simple equations, the bifurcation...
In this paper, the governing equations of an incompressible rotating orthotropic elastic medium are ...
In this paper the secular equation for the Rayleigh wave speed in an incompressible orthotropic elas...
A formula for the speed of Rayleigh waves in isotropic materials is obtained by using the theory of ...
Formulas for the speed of Rayleigh waves in orthotropic compressible elastic materials are obtained ...
Abstract. The aim of this paper is to investigate surface waves in anisotropic fibre-reinforced soli...
Recently, a formula for the Rayleigh wave speed in an isotropic elastic half-space has been given by...
The Rayleigh surface wave is studied at a stress-free thermally insulated surface of an isotropic, l...
The present paper gives explicit solutions for surface waves propagation in a homogeneous half space...
The traditional way of deriving the secular equation for Rayleigh waves propagating along the stres...
This study is devoted to investigate the propagation of Rayleigh-type waves in transversely isotropi...
Several aspects of three basic problems concerned with the propagation of elastic waves in solid med...
This paper is devoted to the study of propagation of Rayleigh waves in a homogeneous isotropic micro...
The present paper deals with the propagation of Rayleigh waves in isotropic homogeneous elastic half...
In this paper, the influence of anisotropy of the solid skeleton on the propagation characteristic o...
In this paper the Rayleigh wave equation has beensimplified to two simple equations, the bifurcation...
In this paper, the governing equations of an incompressible rotating orthotropic elastic medium are ...
In this paper the secular equation for the Rayleigh wave speed in an incompressible orthotropic elas...
A formula for the speed of Rayleigh waves in isotropic materials is obtained by using the theory of ...
Formulas for the speed of Rayleigh waves in orthotropic compressible elastic materials are obtained ...
Abstract. The aim of this paper is to investigate surface waves in anisotropic fibre-reinforced soli...
Recently, a formula for the Rayleigh wave speed in an isotropic elastic half-space has been given by...
The Rayleigh surface wave is studied at a stress-free thermally insulated surface of an isotropic, l...
The present paper gives explicit solutions for surface waves propagation in a homogeneous half space...
The traditional way of deriving the secular equation for Rayleigh waves propagating along the stres...
This study is devoted to investigate the propagation of Rayleigh-type waves in transversely isotropi...
Several aspects of three basic problems concerned with the propagation of elastic waves in solid med...
This paper is devoted to the study of propagation of Rayleigh waves in a homogeneous isotropic micro...
The present paper deals with the propagation of Rayleigh waves in isotropic homogeneous elastic half...
In this paper, the influence of anisotropy of the solid skeleton on the propagation characteristic o...
In this paper the Rayleigh wave equation has beensimplified to two simple equations, the bifurcation...