Since most partial differential equations (PDEs) do not have exact solutions, they are usually solved by some type of numerical method. Since a numerical method is commonly built from finite difference approximations derived from Taylor series expansions, such a development is derived. Stability and convergence of these methods is defined and the rate of convergence is defined and shown for a few simple methods. Of particular importance is the difference between implicit and explicit methods. Finally, the current applications and adaptations of implicit methods on parallel processors are examined and their strengths and weaknesses discussed
This book provides a seamless approach to numerical algorithms, modern programming techniques, and p...
Abstract: In this paper, we present a high order unconditionally stable implicit scheme for diffusio...
Ordinary differential equations are commonly used for mathematical modeling in many diverse fields s...
We construct and analyse three methods for solving initial value problems for implicit differential ...
This paper describes the use of a parallel computer system in applying a finite difference method to...
The n ed for effective parallel methods for solving problems in science and engineering well recogni...
This paper examines the potential of parallel computation methods for pamal differential equations (...
This paper examines the potential of parallel computation methods for partial differential equations...
In this paper, we describe various methods of deriving a parallel version of Stone's Strongly Implic...
In this paper we review the present status of numerical methods for partial differential equations o...
This thesis deals with the concepts of numerical integrator using floating point arithmetic for solv...
This paper explores the use of the software package, Matlab and Excel in the implementation of the f...
This tutorial aims to give an introduction to the design of parallel numeri-cal procedures for solvi...
We study time parallelism for the numerical solution of nonstiff ordinary differential equations. St...
The present status of numerical methods for partial differential equations on vector and parallel co...
This book provides a seamless approach to numerical algorithms, modern programming techniques, and p...
Abstract: In this paper, we present a high order unconditionally stable implicit scheme for diffusio...
Ordinary differential equations are commonly used for mathematical modeling in many diverse fields s...
We construct and analyse three methods for solving initial value problems for implicit differential ...
This paper describes the use of a parallel computer system in applying a finite difference method to...
The n ed for effective parallel methods for solving problems in science and engineering well recogni...
This paper examines the potential of parallel computation methods for pamal differential equations (...
This paper examines the potential of parallel computation methods for partial differential equations...
In this paper, we describe various methods of deriving a parallel version of Stone's Strongly Implic...
In this paper we review the present status of numerical methods for partial differential equations o...
This thesis deals with the concepts of numerical integrator using floating point arithmetic for solv...
This paper explores the use of the software package, Matlab and Excel in the implementation of the f...
This tutorial aims to give an introduction to the design of parallel numeri-cal procedures for solvi...
We study time parallelism for the numerical solution of nonstiff ordinary differential equations. St...
The present status of numerical methods for partial differential equations on vector and parallel co...
This book provides a seamless approach to numerical algorithms, modern programming techniques, and p...
Abstract: In this paper, we present a high order unconditionally stable implicit scheme for diffusio...
Ordinary differential equations are commonly used for mathematical modeling in many diverse fields s...