Conservative Dynamical System

Credits 8 credit points
Instructors Efstathiou, K. (Rijksuniversiteit Groningen), Hanßmann, H. (Universiteit Utrecht)
E-mail K.Efstathiou@rug.nlHeinz.Hanssmann@math.uu.nl
Aim The aim of this course is to introduce basic ideas, concepts, examples, results, techniques and methods for studying conservative dynamical systems.
Description

Classical Mechanics deals with dynamical systems without damping or friction. Here think of ideal pendula, springs or tops, the Solar system, etc. We deal with the Newtonian, the Lagrangian (or variational) and the Hamiltonian theory of such systems.

Important issues are the Noether Theorem, that links conservation laws to symmetry and the Liouville Theorem stating the conservation of volume by the phase flow. As a direct consequence of the latter, Hamiltonian systems can't have attractors.

Main part of the theory deals with symplectic manifolds, that also has applications in other parts of physics, like in optics. The language introduced in this course is needed for all reading of modern Dynamical Systems and Mathematical Physics.

Examination Presentation and home work excercises.
Literature V.I. Arnold,
Mathematical Methods of Classical Mechanics (2nd edition),
Graduate Texts in Mathematics 60, Springer (1989).
Prerequisites Ordinary Differential Equations,
Manifolds (a bit),
Introductory Dynamical Systems.
Remarks

Homepages of the course: 
                http://www.math.uu.nl/people/hansmann/cds.html

http://www.math.rug.nl/~cefstat/cds-0809.html

  Last changed: 16-07-2010 15:08