AbstractFractional diffusion equations replace the integer-order derivatives in space and time by their fractional-order analogues. They are used in physics to model anomalous diffusion. This paper develops strong solutions of space–time fractional diffusion equations on bounded domains, as well as probabilistic representations of these solutions, which are useful for particle tracking codes
Pearson diffusions are governed by diffusion equations with polynomial coefficients. Fractional Pear...
This paper develops strong solutions and stochastic solutions for the tempered fractional diffusion ...
An attempt is made to identify the orders of the fractional derivatives in a simple anomalous diffus...
AbstractFractional diffusion equations replace the integer-order derivatives in space and time by th...
AbstractFractional derivatives can be used to model time delays in a diffusion process. When the ord...
Fractional derivatives were invented by Leibniz soon after their integer-order cousins. Recently, th...
Partially supported by NSF grant EAR-1344280. Fractional derivatives were invented in the 17th centu...
AbstractSome fractional and anomalous diffusions are driven by equations involving fractional deriva...
Fractional derivatives can be used to model time delays in a diffusion process. When the order of th...
International audienceThis work explores different particle-based approaches for the simulation of s...
The generalized diffusion equations with fractional order derivatives have shown be quite efficient ...
A physical-mathematical approach to anomalous diffusion may be based on generalized diffusion equati...
Distributed order fractional differential equations (Caputo, 1995, 2001; Bagley and Torvik, 2000a,b)...
Abstract. Evolution equations for anomalous diffusion employ fractional derivatives in space and tim...
A flexible numerical scheme for the discretization of the space–time fractional diffusion equation i...
Pearson diffusions are governed by diffusion equations with polynomial coefficients. Fractional Pear...
This paper develops strong solutions and stochastic solutions for the tempered fractional diffusion ...
An attempt is made to identify the orders of the fractional derivatives in a simple anomalous diffus...
AbstractFractional diffusion equations replace the integer-order derivatives in space and time by th...
AbstractFractional derivatives can be used to model time delays in a diffusion process. When the ord...
Fractional derivatives were invented by Leibniz soon after their integer-order cousins. Recently, th...
Partially supported by NSF grant EAR-1344280. Fractional derivatives were invented in the 17th centu...
AbstractSome fractional and anomalous diffusions are driven by equations involving fractional deriva...
Fractional derivatives can be used to model time delays in a diffusion process. When the order of th...
International audienceThis work explores different particle-based approaches for the simulation of s...
The generalized diffusion equations with fractional order derivatives have shown be quite efficient ...
A physical-mathematical approach to anomalous diffusion may be based on generalized diffusion equati...
Distributed order fractional differential equations (Caputo, 1995, 2001; Bagley and Torvik, 2000a,b)...
Abstract. Evolution equations for anomalous diffusion employ fractional derivatives in space and tim...
A flexible numerical scheme for the discretization of the space–time fractional diffusion equation i...
Pearson diffusions are governed by diffusion equations with polynomial coefficients. Fractional Pear...
This paper develops strong solutions and stochastic solutions for the tempered fractional diffusion ...
An attempt is made to identify the orders of the fractional derivatives in a simple anomalous diffus...