We propose and study a class of numerical schemes to approximate time-fractional differential equations. The methods are based on the approximations of the Caputo fractional derivative of order α∈ (0 , 1) by using continuous piecewise polynomials, which are strongly related to the backward differentiation formulae. We investigate their theoretical properties, such as the local truncation error and global error estimates with respect to sufficiently smooth solutions, and the numerical stability in terms of stability region and A(π2)-stability. Numerical experiments are given to verify our theoretical investigations
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
We propose and study a class of numerical schemes to approximate time-fractional differential equati...
We propose and study a class of numerical schemes to approximate time-fractional differential equati...
We propose and study a class of numerical schemes to approximate time-fractional differential equati...
There has recently been considerable interest in using a nonstandard piecewise approximation to form...
An efficient numerical method is employed to approximate the numerical solutions of some very functi...
Fractional differential equations have received much attention in recent decades likely due to its p...
Fractional differential equations have received much attention in recent decades likely due to its p...
We develop a fully discrete scheme for time-fractional diffusion equations by using a finite differ...
In this paper, a novel type of polynomial is defined which is equipped with an auxiliary parameter a...
In this paper, a conformable fractional-order logistic differential equation including both discrete...
Numerous fields, including the physical sciences, social sciences, and earth sciences, benefit great...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
We propose and study a class of numerical schemes to approximate time-fractional differential equati...
We propose and study a class of numerical schemes to approximate time-fractional differential equati...
We propose and study a class of numerical schemes to approximate time-fractional differential equati...
There has recently been considerable interest in using a nonstandard piecewise approximation to form...
An efficient numerical method is employed to approximate the numerical solutions of some very functi...
Fractional differential equations have received much attention in recent decades likely due to its p...
Fractional differential equations have received much attention in recent decades likely due to its p...
We develop a fully discrete scheme for time-fractional diffusion equations by using a finite differ...
In this paper, a novel type of polynomial is defined which is equipped with an auxiliary parameter a...
In this paper, a conformable fractional-order logistic differential equation including both discrete...
Numerous fields, including the physical sciences, social sciences, and earth sciences, benefit great...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...
Using finite element method in spatial direction and classical L1L1 approximation in temporal direct...