Detail publikace
Stability and Convergence of the Modern Taylor Series Method
KUNOVSKÝ, J. SEHNALOVÁ, P. ŠÁTEK, V.
Originální název
Stability and Convergence of the Modern Taylor Series Method
Anglický název
Stability and Convergence of the Modern Taylor Series Method
Jazyk
en
Originální abstrakt
The paper deals with extremely exact, stable and fast numerical solutions of systems of differential equations. In a natural way, it also involves solutions of problems that can be transformed to solving a system of differential equations. The project is based on an original mathematical method which uses the Taylor series method for solving differential equations. The Taylor Series Method is based on a recurrent calculation of the Taylor series terms for each time interval. Thus the complicated calculation of higher order derivatives (much criticized in the literature) need not be performed but rather the value of each Taylor series term is numerically calculated. Another typical algorithm is the convolution operation. Stability and convergence of the numerical integration methods when the Dahlquist problem is solved, Taylorian initial problems with automatic transformation, stability and convergence of a system of linear algebraic equations and stability and convergence when algebraic and transcendental equations are solved is discussed in this paper.
Anglický abstrakt
The paper deals with extremely exact, stable and fast numerical solutions of systems of differential equations. In a natural way, it also involves solutions of problems that can be transformed to solving a system of differential equations. The project is based on an original mathematical method which uses the Taylor series method for solving differential equations. The Taylor Series Method is based on a recurrent calculation of the Taylor series terms for each time interval. Thus the complicated calculation of higher order derivatives (much criticized in the literature) need not be performed but rather the value of each Taylor series term is numerically calculated. Another typical algorithm is the convolution operation. Stability and convergence of the numerical integration methods when the Dahlquist problem is solved, Taylorian initial problems with automatic transformation, stability and convergence of a system of linear algebraic equations and stability and convergence when algebraic and transcendental equations are solved is discussed in this paper.
Dokumenty
BibTex
@inproceedings{BUT34929,
author="Jiří {Kunovský} and Pavla {Sehnalová} and Václav {Šátek}",
title="Stability and Convergence of the Modern Taylor Series Method",
annote="The paper deals with extremely exact, stable and fast numerical solutions of
systems of differential equations. In a natural way, it also involves solutions
of problems that can be transformed to solving a system of differential
equations.
The project is based on an original mathematical method which uses the Taylor
series method for solving differential equations.
The Taylor Series Method is based on a recurrent calculation of the Taylor series
terms for each time interval. Thus the complicated calculation of higher order
derivatives (much criticized in the literature) need not be performed but rather
the value of each Taylor series term is numerically calculated. Another typical
algorithm is the convolution operation. Stability and convergence of the
numerical integration methods when the Dahlquist problem is solved, Taylorian
initial problems with automatic transformation, stability and convergence of
a system of linear algebraic equations and stability and convergence when
algebraic and transcendental equations are solved is discussed in this paper.",
address="Czech Technical University Publishing House",
booktitle="Proceedings of the 7th EUROSIM Congress on Modelling and Simulation",
chapter="34929",
edition="Vol. 2",
howpublished="print",
institution="Czech Technical University Publishing House",
year="2010",
month="september",
pages="56--61",
publisher="Czech Technical University Publishing House",
type="conference paper"
}