Generalized Hamiltonian structures for Ermakov systems
arXiv:math-ph/0211033 · doi:10.1088/0305-4470/35/12/314
Abstract
We construct Poisson structures for Ermakov systems, using the Ermakov invariant as the Hamiltonian. Two classes of Poisson structures are obtained, one of them degenerate, in which case we derive the Casimir functions. In some situations, the existence of Casimir functions can give rise to superintegrable Ermakov systems. Finally, we characterize the cases where linearization of the equations of motion is possible.
References in corpus (11)
- Simple evaluation of Casimir invariants in finite-dimensional Poisson systems
- Dynamical symmetries and the Ermakov invariant
- Hamiltonian structure and Darboux theorem for families of generalized Lotka-Volterra systems
- On the generalized Hamiltonian structure of 3D dynamical systems
- On the Hamiltonian structure of Ermakov systems
- Separation of variables in the Jacobi identities
- On the Lie symmetries of a class of generalized Ermakov systems
- On the linearization of the generalized Ermakov systems
- Non-oscillating solutions to uncoupled Ermakov systems and the semiclassical limit
- Computing Casimir invariants from Pfaffian systems
- Algebraic approach in the study of time-dependent nonlinear integrable systems: Case of the singular oscillator
Cited by in corpus (5)
- Characterization and global analysis of a family of Poisson structures
- Ermakov-Lewis Invariants and Reid Systems
- New solution family of the Jacobi equations: Characterization, invariants, and global Darboux analysis
- Weak measurements of trajectories in quantum systems: classical, Bohmian and sum over paths
- New four-dimensional solutions of the Jacobi equations for Poisson structures