PHYSICS 183: NUCLEAR AND PARTICLE PHYSICS

 

Offered (sometimes) in the spring semester.

 

Teacher: Athanasios Petridis

                Harvey Ingham 31C

                Phone: (515) 271-3723

                E-Mail: Athan.Petridis@drake.edu

 

 

Class Schedule: MWF, 10:00 am – 11:10 am.

Office hours: MR 2:00 pm - 4:00 pm.

Textbook: “Introduction to Nuclear and Particle Physics”, A. Das and T. Ferbel, Wiley, ISBN 0-471-57132-6

Homework: 1 assignment every 1 to 2 weeks (40 points total).

Exams: 1 exam during the semester (20 points),

              1 non-comprehensive final (20 points).

Project: 1 independent study project due before the dead day (20 points).

Grading:    100 <=  points  <= 85  is  A

                     85 <    points  <= 75  is  B

                     75 <    points  <= 65  is  C

                     65 <    points  <= 50  is  D

                     50 <    points  <=   0  is  F

No extra-credit assignments are offered during or at the end of the semester.

 

The following topics are covered in the course (the list is neither inclusive or exclusive and may change from year to year or during the semester according to instructor’s view or to match student interests):

 

1.      Special relativity and the Poincarre group

2.      Review of non-relativistic quantum mechanics

3.      Relativistic quantum mechanics (Klein-Gordon and Dirac equations)

4.      Nuclear phenomenology and related experiments

5.      Nuclear forces and the two nucleon problem

6.      Nuclear structure models (liquid drop, shell model, inverted spin-orbit coupling, Fermi model)

7.      Radiactive decay (alpha, beta, gamma, fission, fusion)

8.      Quantum mechanical scattering, partial waves, and resonances

9.      The weak force and neutrinos

10.  Strangeness and kaons

11.  The strong force, conservation laws, particle interactions

12.  Symmetries, the static quark model (the eight-fold way)

13.  The parton model and deeply inelastic scattering

14.  Gauge theories for the e/m, weak, and strong interactions

15.  Spontaneous symmetry breaking, the Higgs mechanism and the Standard Model

16.   Introduction to Quantum Electrodynamics and Chromodynamics

17.   Feynman path integrals and Feynman diagrams

18.  Quarkonium production and decay

19.  Nuclear shadowing and other nuclear effects

20.  Phase transitions, the Quark-Gluon Plasma and its signatures