
doi: 10.1007/bf00914351
A geometrization and generalization of the Routh procedure of Lagrangian reduction is presented. This is done by including conservative gyroscopic forces into the variational principle. A Dirac constraint type of construction occurs useful as one of the aids for the nonabelian case. The rigid body as a simple nonabelian example is discussed. The general techniques of geometric mechanics is applied to the double spherical pendulum, that is a mechanical system with an abelian symmetry group. Lagrangian reduction methods are used in this case to get the linearized equations that enable one to detect bifurcations (such as the Hamilton- Hopf bifurcation). The authors expect that the methods of this paper can be applied to a number of other situations as well, such as pseudo-rigid bodies, etc.
variational principle, Nonholonomic systems related to the dynamics of a system of particles, Routh procedure, linearized equations, Symmetries and conservation laws, reverse symmetries, invariant manifolds and their bifurcations, reduction for problems in Hamiltonian and Lagrangian mechanics, stability, 510, symmetry group, Local and nonlocal bifurcation theory for dynamical systems, rigid body dynamics, Hamilton-Hopf bifurcation, conservative gyroscopic forces, Lagrange's equations
variational principle, Nonholonomic systems related to the dynamics of a system of particles, Routh procedure, linearized equations, Symmetries and conservation laws, reverse symmetries, invariant manifolds and their bifurcations, reduction for problems in Hamiltonian and Lagrangian mechanics, stability, 510, symmetry group, Local and nonlocal bifurcation theory for dynamical systems, rigid body dynamics, Hamilton-Hopf bifurcation, conservative gyroscopic forces, Lagrange's equations
| selected citations These citations are derived from selected sources. This is an alternative to the "Influence" indicator, which also reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically). | 89 | |
| popularity This indicator reflects the "current" impact/attention (the "hype") of an article in the research community at large, based on the underlying citation network. | Top 10% | |
| influence This indicator reflects the overall/total impact of an article in the research community at large, based on the underlying citation network (diachronically). | Top 1% | |
| impulse This indicator reflects the initial momentum of an article directly after its publication, based on the underlying citation network. | Top 10% |
