The propagation of axial waves in hyperelastic rods is studied using both time and frequency domain Finite Element models. The nonlinearity is introduced using the Murnaghan strain energy function and the equations governing the dynamics of the rod are derived assuming linear kinematics. In the time domain, the standard Galerkin Finite Element Method, Spectral Element Method and Taylor-Galerkin Finite Element Method are considered. A frequency domain formulation based on the Fourier Spectral Method is also developed. It is found that the time domain Spectral Element Method provides the most efficient numerical tool for the problem considered
In this paper, two new methods are proposed to study wave propagation in materials with constitutive...
The paper discusses the frequency domain based solution for a certain class of wave equations such a...
A method is presented by which the wavenumbers for a one-dimensional waveguide can be predicted from...
The propagation of axial waves in nonlinear elastic rods is studied using three different Galerkin F...
This paper addresses the formulation and numerical efficiency of various numerical models of differe...
A geometrically non-linear Spectral Finite Flement Model (SFEM) including hysteresis, internal frict...
AbstractAn energy–momentum conserving time integrator coupled with an automatic finite element algor...
An energy–momentum conserving time integrator coupled with an automatic finite element algorithm is ...
An energy-momentum conserving time integrator coupled with an automatic finite element algorithm is ...
A spectral finite element model (SFEM) for analysis of axial–flexural–shear coupled wave propagation...
A new spectral element ( SE) is formulated to analyse wave propagation in anisotropic in homogeneous...
Free and forced axial vibrations of damped non local rods are investigated. Two types of non local d...
D. Tech. Mathematical Technology.Investigates hyperbolic and pseudohyperbolic equations and the resu...
A method is presented by which the wavenumbers for a one-dimensional waveguide can be predicted from...
The class of fabricated materials known as metamaterials, with its promises for unconventional mater...
In this paper, two new methods are proposed to study wave propagation in materials with constitutive...
The paper discusses the frequency domain based solution for a certain class of wave equations such a...
A method is presented by which the wavenumbers for a one-dimensional waveguide can be predicted from...
The propagation of axial waves in nonlinear elastic rods is studied using three different Galerkin F...
This paper addresses the formulation and numerical efficiency of various numerical models of differe...
A geometrically non-linear Spectral Finite Flement Model (SFEM) including hysteresis, internal frict...
AbstractAn energy–momentum conserving time integrator coupled with an automatic finite element algor...
An energy–momentum conserving time integrator coupled with an automatic finite element algorithm is ...
An energy-momentum conserving time integrator coupled with an automatic finite element algorithm is ...
A spectral finite element model (SFEM) for analysis of axial–flexural–shear coupled wave propagation...
A new spectral element ( SE) is formulated to analyse wave propagation in anisotropic in homogeneous...
Free and forced axial vibrations of damped non local rods are investigated. Two types of non local d...
D. Tech. Mathematical Technology.Investigates hyperbolic and pseudohyperbolic equations and the resu...
A method is presented by which the wavenumbers for a one-dimensional waveguide can be predicted from...
The class of fabricated materials known as metamaterials, with its promises for unconventional mater...
In this paper, two new methods are proposed to study wave propagation in materials with constitutive...
The paper discusses the frequency domain based solution for a certain class of wave equations such a...
A method is presented by which the wavenumbers for a one-dimensional waveguide can be predicted from...