We develop and analyse a numerical method for the time-fractional nonlocal thermistor problem. By rigorous proofs, some error estimates in different contexts are derived, showing that the combination of the backward differentiation in time and the Galerkin spectral method in space leads, for an enough smooth solution, to an approximation of exponential convergence in space. © 2016 Elsevier Lt
One of the ongoing issues with fractional-order diffusion models is the design of efficient numerica...
One of the ongoing issues with fractional-order diffusion models is the design of efficient numerica...
Fractional differential systems arise in many fields, and are particularly suitable to model process...
We survey methods and results of fractional differential equations in which an unknown function is u...
The fractional Fokker-Planck equation is an important physical model for simulating anomalous diffus...
The time fractional derivative of a function y(t) depends on the past history of the function y(t),...
The time-dependent fractional convection-diffusion (TFCD) equation is solved by the barycentric rati...
We investigate the fractional behavior of the integrators associated with a fractional diffusion equ...
AbstractIn this paper, the nonlocal diffusion in one-dimensional continua is investigated by means o...
This presentation deals with the numerical solution of a reaction-diffusion problems, where the time...
A finite difference/Galerkin spectral discretization for the temporal and spatial fractional coupled...
We study a nonlocal thermistor problem for fractional derivatives in the conformable sense. Classica...
In time fractional models, the solution depends on all its past history; therefore such models are a...
We couple the L1 discretization for Caputo derivative in time with spectral Galerkin method in space...
In this paper, we study four nonlocal diffusion operators, including the fractional Laplacian, spect...
One of the ongoing issues with fractional-order diffusion models is the design of efficient numerica...
One of the ongoing issues with fractional-order diffusion models is the design of efficient numerica...
Fractional differential systems arise in many fields, and are particularly suitable to model process...
We survey methods and results of fractional differential equations in which an unknown function is u...
The fractional Fokker-Planck equation is an important physical model for simulating anomalous diffus...
The time fractional derivative of a function y(t) depends on the past history of the function y(t),...
The time-dependent fractional convection-diffusion (TFCD) equation is solved by the barycentric rati...
We investigate the fractional behavior of the integrators associated with a fractional diffusion equ...
AbstractIn this paper, the nonlocal diffusion in one-dimensional continua is investigated by means o...
This presentation deals with the numerical solution of a reaction-diffusion problems, where the time...
A finite difference/Galerkin spectral discretization for the temporal and spatial fractional coupled...
We study a nonlocal thermistor problem for fractional derivatives in the conformable sense. Classica...
In time fractional models, the solution depends on all its past history; therefore such models are a...
We couple the L1 discretization for Caputo derivative in time with spectral Galerkin method in space...
In this paper, we study four nonlocal diffusion operators, including the fractional Laplacian, spect...
One of the ongoing issues with fractional-order diffusion models is the design of efficient numerica...
One of the ongoing issues with fractional-order diffusion models is the design of efficient numerica...
Fractional differential systems arise in many fields, and are particularly suitable to model process...