We prove that in all but one case the normal form of a real or complex Hamiltonian matrix which is irreducible and appropriately normalized can be computed by Lie series methods in formally the same manner as one computes the normal form of a nonlinear Hamiltonian function. Calculations are emphasiz
Versal Deformations and Normal Forms for Reversible and Hamiltonian Linear Systems
β Scribed by I. Hoveijn
- Publisher
- Elsevier Science
- Year
- 1996
- Tongue
- English
- Weight
- 960 KB
- Volume
- 126
- Category
- Article
- ISSN
- 0022-0396
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β¦ Synopsis
The problem of this article is the characterization of equivalence classes and their versal deformations for reversible and reversible Hamiltonian matrices. In both cases the admissible transformations form a subgroup G of Gl(m). Therefore the Gl(m)-orbits of a given matrix may split into several G-orbits. These orbits are characterized by signs. For each sign we have a normal form and a corresponding versal deformation. The main tool in the characterization is reduction to the semi simple case.
π SIMILAR VOLUMES
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