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Introduction to Applied Nuclear Physics

22.02

2007 Fall Calendar

Location and Times

 

Lectures will be held in Room 24-115 each Tuesday and Thursday from 2:30 to 4:00 PM.

Recitations will be held in Room 24-307 each Monday and Wednesday from 1:00 to 2:00.

September

 

6, 11

Intro lectures: Basic Nucleus Concepts, Wave-Particle duality & historical background

 

 

13

Quantum Mechanics #1- New Concepts
-Postulate 1 (Observables & Operators)

Liboff 3.1-3.3
Postulates handout

 

18, 20

Quantum Mechanics #2
-Eigenvalue Problem, compare classical state, free particles
-Postulate 2 (quantum state, psi)
-Postulate 3 (measurement probabilities)

 

 

25, 27

Quantum Mechanics #3 #4
-Free particle in box, quantization of energy levels
-Interpretation of the Wave Function
- Solutions in classically allowed and disallowed regions
- 1D scattering problem, outgoing B.C.
- normalization of psi, flux interpretation,
- transmission and reflection coefficients.
- Particle in square well energy eigenvalue problem
- Graphical solution - fitting wavelength in well

Liboff 4.1, 4.2, 4.3



Liboff 7.5, 7.6, 7.7




October

 

2, 4

Quantum Mechanics #5 #6
- Commutators
- Heisenberg Uncertainty principle
- Degenerary, complete sets of commuting observables

Liboff 5.1-5.5

 

9

No class (Columbus Day break)

 
 

11

Quantum Mechanics #7
- Postulate 4 (time evolution) Conservation Laws
- d < A >/ dt Expression
- Ehrenfest principle and classical limit

Liboff 3.4,3.5,6.2

 

16, 18

Quantum Mechanics #8 #9
- Quantum mechanical Angular momentum
- Eignevalue problem (for L) via commutator algebra
- Algebraic possibility of 1/2 integer l values
- Orbital angular momentum
- Spin angular momentum
- Coupled and Uncoupled representations
- Many particle wave functions
- Symmetries of the many particle psi function
- Fermions and the Pauli exclusion principle
- Bosons

Liboff 9.1-9.3

 

23

Review and Mid-Term Exam (Evening)

 
 

25

Nuclear Structure #1
- Essential Features of nuclear force
- Guess the potential, Vnuc
- Center of mass, remove degree of freedom

Krane 3

 

30

Nuclear Structure #2
- Deuteron eigenvalue problem, ground state
- Physical picture of deuteron
- Spin dependence of the Nuclear Force
- "Tensor" interaction

Krane 4

November

 

1

Nuclear Structure #3
-Nuclear Shell Model, oscillator level

Krane 5

 

6, 8

Nuclear Structure #4 #5
-Nuclear Shell Model #2, Spin-orbit coupling, Magic numbers
-Radioactive decay, Alpha decay

Krane 5

 

15, 20

Gamma Decay

Liboff 10.7, Krane 10

 

22

No class (Thanksgiving Day break)

Krane 8

 

27

Beta Decay

Krane 9

 

29

Nuclear Interactions #1, - Charged Particle Interactions

Krane 7

December

 

4,6

Nuclear Interactions #2 #3
-Gamma ray interactions
-Neutron Interactions

Krane 12

 

11

Nuclear Interactions #4 #5
-Fission
-Fusion

Krane 13
Krane 14

 

17 -21

FINAL EXAM WEEK