Sentence examples for for solving a space-time from inspiring English sources

In this article, we presented effective numerical methods for solving a space-time fractional diffusion equation with initial boundary conditions.

In this paper, motivated by previous research on the existence of weak solutions (or positive solutions) of fractional-order differential equations, our main aim is to develop the Schauder fixed point theorem and the Arzelà-Ascoli compactness theorem for solving a class of time-space fractional initial-boundary value problems with superdiffusion terms.

Now, we provide some basic definitions and examples where the method is applied for solving linear space-time fractional differential equations.

A Nuclear Energy Agency (NEA), Organization for Economic Co-operation and Development (OECD) benchmark for the time-dependent neutron transport calculations without spatial homogenization has been established in order to facilitate the development and assessment of numerical methods for solving the space-time neutron kinetics equations.

In this paper, we propose practical numerical methods for solving a class of initial-boundary value problems of space-time fractional advection-diffusion equations.

In this paper, we propose a new technique for solving space-time fractional telegraph equations.

The main advantage of the proposed approach is that it is an accurate analytical method (the Laplace transform method) that can be implemented for both space and time discretizations of the fractional derivatives and allows us to present new solutions to problems by certain applications for solving space-time fractional derivatives.

There is no currently known polynomial-time algorithm for solving a ♯P-complete problem.

Consider for example the concept of a space-time point.

We combine the call options to construct the universal difference scheme for solving the time-space fractional B-S equation.

Finally, numerical experiments demonstrate the effectiveness of the universal difference scheme for solving the time-space fractional B-S equation.