Overview
This course aims to provide students with advanced theoretical and semi-analytical tools for analyzing dynamical systems, particularly mechanical systems. The course covers topics such as Hamiltonian systems, canonical and non-canonical transformations, nonlinear dynamics, periodic & quasi-periodic orbits, driven nonlinear oscillators, chaos, stability / instability, energy surfaces, and more. Students will learn methods for writing equations of motion and understanding the mathematical structure they represent. The course focuses on sets of possible motion of mechanical systems, trajectories in phase space, and topics related to Hamiltonian systems. The teaching method involves lectures and examples, with a focus on constructing canonical transformations from generating functions. This course is intended for individuals with prior knowledge of Lagrangian systems and an interest in advanced dynamics and nonlinear systems analysis.
Syllabus
Summary so far.
Hamilton's canonical equations from the principal of least action.
Generating function approach to canonical transformations.
Harmonic oscillator example.
Aside: photon energy and momentum looks like harmonic oscillator in quantum mechanics.
Different kinds of generating functions.
Near-identity transformations and flow map of Hamilton's equations.
Summary / big picture of canonical transformations .
Taught by
Ross Dynamics Lab