Prerequisites:
PH2400 and
MA3530 Intro. Diff. Equations.
This course is a prerequisite for PH3411,
PH4390, PH4395
and PH4430.
Text (Fall, 2004):
Previous Text:
Typical syllabus:
| Topics | Number of Lectures |
|---|---|
Thermal Radiation and Planck's Postulate
Wien's Displacement Law and the Stefan-Boltzmann Law Planck's Postulate Classical Theory of Cavity Radiation Planck's Theory of Cavity Radiation |
4 |
Photons & Particle-like Properties of Radiation
Einstein's Quantum Theory of the Photoelectric Effect The Compton Effect Bohr's Complementarity Principle X-Ray Production Pair Production and Pair Annihilation The Attenuation of X-Rays |
5 |
Bohr's Model of the One-Electron Atom
Atomic Spectra Bohr's Postulates Atomic Energy States Bohr's Correspondence Principle The Franck-Hertz Experiment |
4 |
deBroglie's Postulate: Wave-like Properties of Particles
The Wave-Particle Duality The Double Slit Experiment Wave Packets The Uncertainty Principle |
4 |
Schrödinger's Wave Mechanics
Schrödinger's Time-Independent Wave Equation The Infinite Square Well Potential Born's Interpretation of Wave Functions Expectation Values Properties of Energy Eigenfunctions
The Harmonic Oscillator The Free Particle The Step Potential The Barrier Potential and Tunneling The Three Dimensional Box |
12 |
Quantization of Angular Momentum
The Schrödinger Equation in Spherical Coordinates Separation of Variables Angular Momentum Quantum Numbers Parity Observables in Spherical Coordinates |
6 |
One-Electron Atoms
Solutions of the Radial Equation Degeneracy Probability Distributions Electric Dipole Selection Rules |
6 |
| Total Number of Lectures: | 41 |