We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof scheme of the KAM theorem) to the construction of a suitable normal form related to an invariant elliptic torus. As a byproduct, our procedure can also provide some analytic expansions of the motions on elliptic tori. By extensively using algebraic manipulations on a computer, we explicitly apply our method to a planar four-body model not too different with respect to the real Sun--Jupiter--Saturn--Uranus system. The frequency analysis method allows us to check that our location of the initial conditions on an invariant elliptic torus is really accurate
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof s...
We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof s...
We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof s...
We adapt the Kolmogorov\u2019s normalization algorithm (which is the key element of the original pro...
We give a constructive proof of the existence of lower dimensional elliptic tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
Abstract. We give a constructive proof of the existence of lower dimensional elliptic tori in nearly...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof s...
We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof s...
We adapt the Kolmogorov's normalization algorithm (which is the key element of the original proof s...
We adapt the Kolmogorov\u2019s normalization algorithm (which is the key element of the original pro...
We give a constructive proof of the existence of lower dimensional elliptic tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
We give a constructive proof of the existence of elliptic lower dimensional tori in nearly integrabl...
Abstract. We give a constructive proof of the existence of lower dimensional elliptic tori in nearly...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...
We describe an algorithm constructing an invariant KAM torus for a class of planetary systems, such ...