Analytical Mechanics II
Analytical Mechanics is an advanced course that extends classical Newtonian mechanics using powerful mathematical formulations, such as Lagrangian and Hamiltonian mechanics. These frameworks provide a deeper understanding of motion and dynamics, making them essential for fields like physics, engineering, and applied mathematics.
Key Topics Covered:
1. Variational Principles & Lagrangian Mechanics
- Principle of Least Action
- Generalized Coordinates & Degrees of Freedom
- Lagrange’s Equations of Motion
- Applications to constrained systems and central force motion
2. Hamiltonian Mechanics & Canonical Formulation
- Legendre Transform and Hamilton’s Equations
- Phase Space and Conserved Quantities
- Poisson Brackets & Canonical Transformations
- Liouville’s Theorem and Symplectic Geometry
3. Rigid Body Dynamics
- Euler Angles and Rotational Kinematics
- Moment of Inertia Tensor and Principal Axes
- Euler’s Equations of Motion
- Gyroscopic Motion and Stability
4. Non-Inertial Reference Frames
- Rotating Coordinate Systems
- Coriolis and Centrifugal Forces
- Foucault Pendulum & Earth’s Rotation Effects
5. Small Oscillations & Normal Modes
- Stability of Equilibrium Points
- Coupled Oscillators & Eigenvalue Problems
- Normal Mode Analysis in Multi-Particle Systems
6. Introduction to Hamilton-Jacobi Theory & Advanced Topics
- Hamilton’s Principal Function
- Action-Angle Variables
- Introduction to Classical Field Theory
Teacher: Azeez Abdullah Barzinjy