We propose two candidates for discrete analogues to the nonlinear Ermakov-Pinney equation. The first one based on an association with a two-dimensional conformal mapping defines a second-degree difference scheme. It possesses the same features as in the continuum: a nonlinear superposition principle relating its general solution to a second-order linear difference equation and by direct linearisation a relationship with a third-order difference equation. The second form, which is new, is obtained from a slight improvement of the superposition principle. It has the advantage of leading to a first degree difference scheme and preserves all the nice properties of its linearisation. (C) 1997 Elsevier Science B.V
We use an intertwining property of linear differential operators to construct the general solution o...
We propose a discrete Darboux-Lax scheme for deriving auto-Backlund transformations and constructing...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This ...
Abstract|The classical Pinney equation is discretised in such a way that its well-known nonlinear su...
AbstractThe classical Pinney equation is discretised in such a way that its well-known nonlinear sup...
AbstractThe classical Pinney equation is discretised in such a way that its well-known nonlinear sup...
In this short note, we revisit the so-called Ermakov–Pinney (EP) equation viewing its properties fro...
The first part of the paper proves that a subset of the general set of Ermakov-Pinney equations can ...
The first part of the paper proves that a subset of the general set of Ermakov-Pinney equations can ...
The class of nonlinear ordinary differential equations $y^\prime\primey = F(z,y^2)$, where F is a sm...
AbstractA Lie group approach is adopted to construct generalized Pinney equations of two distinct ty...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We use an intertwining property of linear differential operators to construct the general solution o...
We propose a discrete Darboux-Lax scheme for deriving auto-Backlund transformations and constructing...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This ...
Abstract|The classical Pinney equation is discretised in such a way that its well-known nonlinear su...
AbstractThe classical Pinney equation is discretised in such a way that its well-known nonlinear sup...
AbstractThe classical Pinney equation is discretised in such a way that its well-known nonlinear sup...
In this short note, we revisit the so-called Ermakov–Pinney (EP) equation viewing its properties fro...
The first part of the paper proves that a subset of the general set of Ermakov-Pinney equations can ...
The first part of the paper proves that a subset of the general set of Ermakov-Pinney equations can ...
The class of nonlinear ordinary differential equations $y^\prime\primey = F(z,y^2)$, where F is a sm...
AbstractA Lie group approach is adopted to construct generalized Pinney equations of two distinct ty...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This is the two...
We use an intertwining property of linear differential operators to construct the general solution o...
We propose a discrete Darboux-Lax scheme for deriving auto-Backlund transformations and constructing...
We analyze a nonlinear discrete scheme depending on second-order finite differences. This ...