Notes on Quantum Mechanics
With Problems Compiled by Robert A. Schluter
191 pages

5 line drawings

6 x 9

© 1961, 1995
The lecture notes presented here in facsimile were prepared by Enrico Fermi for students taking his course at the University of Chicago in 1954. They are vivid examples of his unique ability to lecture simply and clearly on the most essential aspects of quantum mechanics.
At the close of each lecture, Fermi created a single problem for his students. These challenging exercises were not included in Fermi's notes but were preserved in the notes of his students. This second edition includes a set of these assigned problems as compiled by one of his former students, Robert A. Schluter.
Enrico Fermi was awarded the Nobel Prize for Physics in 1938.
At the close of each lecture, Fermi created a single problem for his students. These challenging exercises were not included in Fermi's notes but were preserved in the notes of his students. This second edition includes a set of these assigned problems as compiled by one of his former students, Robert A. Schluter.
Enrico Fermi was awarded the Nobel Prize for Physics in 1938.
Contents
Preface to the First Edition
1: Optics  Mechanics Analogy
2: Schrodinger Equation
3: Simple OneDimensional Problems
4: Linear Oscillator
5: W. K. B. Method
6: Spherical Harmonics
7: Central Forces
8: Hydrogen Atom
9: Orthogonality of Wave Functions
10: Linear Operators
11: Eigenvalues and Eigenfunction
12: Operators for Mass Point
13: Uncertainty Principle
14: Matrices
15: Hermitian Matrices  Eigenvalue Problems
16: Unitary Matrices  Transformations
17: Observables
18: The Angular Momentum
19: Time Dependence of Observables  Heisenberg Representation
20: Conservation Theorems
21: TimeIndependent Perturbation Theory  Ritz Method
22: Case of Degeneracy or Quasi Degeneracy  Hydrogen Stark Effect
23: TimeDependent Perturbation Theory  Born Approximation
24: Emission and Absorption of Radiation
25: Pauli Theory of Spin
26: Electron in Central Field
27: Anomalous Zeeman Effect
28: Addition of Angular Momentum Vectors
29: Atomic Multiplets
30: Systems with Identical Particles
31: TwoElectron System
32: Hydrogen Molecule
33: Collision Theory
34: Dirac's Theory of the Free Electron
35: Dirac Electron in Electromagnetic Field
36: Dirac Electron in Central Field  Hydrogen Atom
37: Transformations of Dirac Spinors
Introduction to Problems for Notes on Quantum Mechanics
Problems
1: Optics  Mechanics Analogy
2: Schrodinger Equation
3: Simple OneDimensional Problems
4: Linear Oscillator
5: W. K. B. Method
6: Spherical Harmonics
7: Central Forces
8: Hydrogen Atom
9: Orthogonality of Wave Functions
10: Linear Operators
11: Eigenvalues and Eigenfunction
12: Operators for Mass Point
13: Uncertainty Principle
14: Matrices
15: Hermitian Matrices  Eigenvalue Problems
16: Unitary Matrices  Transformations
17: Observables
18: The Angular Momentum
19: Time Dependence of Observables  Heisenberg Representation
20: Conservation Theorems
21: TimeIndependent Perturbation Theory  Ritz Method
22: Case of Degeneracy or Quasi Degeneracy  Hydrogen Stark Effect
23: TimeDependent Perturbation Theory  Born Approximation
24: Emission and Absorption of Radiation
25: Pauli Theory of Spin
26: Electron in Central Field
27: Anomalous Zeeman Effect
28: Addition of Angular Momentum Vectors
29: Atomic Multiplets
30: Systems with Identical Particles
31: TwoElectron System
32: Hydrogen Molecule
33: Collision Theory
34: Dirac's Theory of the Free Electron
35: Dirac Electron in Electromagnetic Field
36: Dirac Electron in Central Field  Hydrogen Atom
37: Transformations of Dirac Spinors
Introduction to Problems for Notes on Quantum Mechanics
Problems
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Physical Sciences: Theoretical Physics
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