Introduction to Higher Order Classical Dynamics: Pais-Uhlenbeck Model and Coupled Oscillators
arXiv:2605.20094 · doi:10.1119/5.0284311
Abstract
Most of the laws of Nature involve derivatives up to the second order. Ostrogradski was the first to seek a formulation of the equations of higher-order derivatives. He extended Hamilton's equations by considering Lagrangians that depend on higher-order derivatives of generalized coordinates. The Hamilton-Ostrogradski formulation served as the basis for later studies with higher-order derivatives. However, the Hamilton-Ostrogradski formalism is rarely discussed in textbooks or the pedagogical literature. This motivated us to show how the Hamilton-Ostrogradski formalism can be applied it to the Pais-Uhlenbeck oscillator. We hope that the approach presented in this work can serve as a basis for discussion in advanced classical mechanics courses.
Version with expanded references
References in corpus (10)
- f(R) Theories Of Gravity
- The Renormalization Group and Singular Perturbations: Multiple-Scales, Boundary Layers and Reductive Perturbation Theory
- Effective Action of Vacuum: Semiclassical Approach
- Spherically Symmetric Solutions in Higher-Derivative Gravity
- Pais-Uhlenbeck Oscillator and Negative Energies
- On the Symmetries of Hamiltonian Systems
- Higher order derivative operators as quantum corrections
- theories of gravity in Einstein frame: A higher order modified Starobinsky inflation model in the Palatini approach
- Singular Lagrangians and the Dirac--Bergmann Algorithm in Classical Mechanics
- Classical and Quantum Dynamics of Gyroscopic Systems and Dark Energy