In this paper, we consider the numerical inverse Laplace transform for distributed order time-fractional equations, where a discontinuous Galerkin scheme is used to discretize the problem in space. The success of Talbot’s approach for the computation of the inverse Laplace transform depends critically on the problem’s spectral properties and we present a method to numerically enclose the spectrum and compute resolvent estimates independent of the problem size. The new results are applied to time-fractional wave and diffusion-wave equations of distributed order
AbstractWe find solutions for the diffusion-wave problem in 1D with n-term time fractional derivativ...
This book systematically presents solutions to the linear time-fractional diffusion-wave equation. I...
We discuss the method of Laplace and Fourier integral transforms to investigation of differential eq...
In this paper we investigate the solution of generalized distributed-order wave equations with compo...
In this paper we investigate the solution of generalized distributed-order wave equations with compo...
We consider the discretization in time if a fractional order diffusion equation. The approximation i...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
This study presents a semi-analytical boundary-only collocation technique for solving multi-term tim...
Abstract Fractional differential equations (FDEs) of distributed-order are important in depicting th...
The time distributed-order diffusion-wave equation describes radial groundwater flow to or from a we...
The time distributed-order diffusion-wave equation describes radial groundwater flow to or from a we...
Mathematics Subject Classification 2010: 26A33, 33E12, 35S10, 45K05.We give the proofs of the existe...
AbstractWe find solutions for the diffusion-wave problem in 1D with n-term time fractional derivativ...
This book systematically presents solutions to the linear time-fractional diffusion-wave equation. I...
We discuss the method of Laplace and Fourier integral transforms to investigation of differential eq...
In this paper we investigate the solution of generalized distributed-order wave equations with compo...
In this paper we investigate the solution of generalized distributed-order wave equations with compo...
We consider the discretization in time if a fractional order diffusion equation. The approximation i...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
In this paper, we derive and analyse a compact difference scheme for a distributed-order time-fracti...
This study presents a semi-analytical boundary-only collocation technique for solving multi-term tim...
Abstract Fractional differential equations (FDEs) of distributed-order are important in depicting th...
The time distributed-order diffusion-wave equation describes radial groundwater flow to or from a we...
The time distributed-order diffusion-wave equation describes radial groundwater flow to or from a we...
Mathematics Subject Classification 2010: 26A33, 33E12, 35S10, 45K05.We give the proofs of the existe...
AbstractWe find solutions for the diffusion-wave problem in 1D with n-term time fractional derivativ...
This book systematically presents solutions to the linear time-fractional diffusion-wave equation. I...
We discuss the method of Laplace and Fourier integral transforms to investigation of differential eq...