AbstractAn algorithm is given to linearize nonlinear first order systems of partial differential equations admitting an infinite-parameter Lie group of point transformations. The associated infinitesimal operator must be a linear combination of commuting operators which individually are not necessarily admitted by the basic system, whereas the coefficients of the combination are given by arbitrary solutions of a suitable linear system. The procedure is based on the introduction of the canonical variables corresponding to the commuting operators. Within such a framework we reformulate a theorem already proved by Kumei and Bluman [SIAM J. Appl. Math.42 (1982)]. The paper concludes with some illustrative examples of the proposed algorithm
Abstract. A constructive algorithm is developed to determine whether or not a given linear p.d.e, ca...
In this paper we consider first-order systems with constant coefficients for two real-valued functio...
AbstractIn this paper we consider the second order Monge–Ampère equations in (1+1), (2+1), and (3+1)...
AbstractAn algorithm is given to linearize nonlinear first order systems of partial differential equ...
an algorithm is given to linearize nonlinear first order systems of partial differential equations a...
In this paper it is shown an algorithm leading to linearization of nonlinear systems of partial diff...
Solving nonlinear ordinary differential equations is one of the fundamental and practically importan...
We study the linearization of nonlinear second-order ordinary differential equations from the point ...
For a nonlinear ordinary differential equation solved with respect to the highest order derivative a...
The paper claims to give a systematic approach allowing one to obtain invertible variable transforma...
Abstract. Complex Lie point transformations are used to linearize a class of systems of second order...
Transformations of differential equations to other equivalent equations play a central role in many ...
In the framework of projective-geometric theory of systems of differential equations developed by th...
Despite the fact that Sophus Lie's theory was virtually the only systematic method for solving nonli...
In this paper we consider first-order systems with constant coefficients for two real-valued functio...
Abstract. A constructive algorithm is developed to determine whether or not a given linear p.d.e, ca...
In this paper we consider first-order systems with constant coefficients for two real-valued functio...
AbstractIn this paper we consider the second order Monge–Ampère equations in (1+1), (2+1), and (3+1)...
AbstractAn algorithm is given to linearize nonlinear first order systems of partial differential equ...
an algorithm is given to linearize nonlinear first order systems of partial differential equations a...
In this paper it is shown an algorithm leading to linearization of nonlinear systems of partial diff...
Solving nonlinear ordinary differential equations is one of the fundamental and practically importan...
We study the linearization of nonlinear second-order ordinary differential equations from the point ...
For a nonlinear ordinary differential equation solved with respect to the highest order derivative a...
The paper claims to give a systematic approach allowing one to obtain invertible variable transforma...
Abstract. Complex Lie point transformations are used to linearize a class of systems of second order...
Transformations of differential equations to other equivalent equations play a central role in many ...
In the framework of projective-geometric theory of systems of differential equations developed by th...
Despite the fact that Sophus Lie's theory was virtually the only systematic method for solving nonli...
In this paper we consider first-order systems with constant coefficients for two real-valued functio...
Abstract. A constructive algorithm is developed to determine whether or not a given linear p.d.e, ca...
In this paper we consider first-order systems with constant coefficients for two real-valued functio...
AbstractIn this paper we consider the second order Monge–Ampère equations in (1+1), (2+1), and (3+1)...