Part-Time Programs in Engineering and Applied Science, Johns Hopkins University

Classical Mechanics
615.453


Course Description
This is an advanced course in classical mechanics that also prepares the student for the study of advanced modern physics and provides an opportunity to master the mathematical techniques necessary for quantum mechanics. Topics include the methods of Lagrangian, Hamiltonian, Euler, Hamilton-Jacobi, canonical perturbations, and special relativity. These methods are applied to problems of central force motion, scattering, force-free rigid body motion, and rotation sensing instruments. Applications are stressed through in-class examples and homework.

Syllabus

  1. Newtonian Mechanics
  2. Variational Mechanics
  3. Hamilton's Principle and Lagrange's Equation
  4. Hamilton's Canonical Equations
  5. Central Force Motion
  6. Rigid Body Motion
  7. Canonical Transformations/Hamilton-Jacobi Equation
  8. Mid-Term Examination
  9. Canonical Transformations/Hamilton-Jacobi Equation
  10. Perturbation Theory
  11. Stability and Chaos
  12. Special Theory of Relativity
  13. Review/Catch-Up
  14. Final Examination

Prerequisites
Vector analysis, differential equations, and intermediate mechanics.

Instructor
Vincent Pisacane received his Ph.D. from Michigan State University and is currently employed by the Johns Hopkins Applied Physics Laboratory.
E-mail the instructor.

Textbook
Classical Mechanics, Second Edition by Goldstein, Herbert


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Summer 1998