North Carolina A & T State University
Department of Physics
Fall 2003

     

Course:

Phys 465-01 Atomic and Molecular Physics

   
 Instructor:

Dr. Solomon Bililign

 
 Marteena Hall # 101
ex 7733
e-mail bililign@ncat.edu
   
Time :
Tuesday    8:30-9:45 a.m.
Thursdays 8:30-9:45 a.m.
   
 Place :
Marteena # 318
   
Office Hours:
 Monday  3:00- 5:00p.m.
 
Wednesday 3:00 - 5:00p.m.   
 
or by appointment
   
 Text:
 The physics of atoms and quanta 6th edition
  Hanken and Wolf, Springer
   
References:
Quantum Physics of Atoms, Molecules,
  Solids , Nuclei, and Particles, 2ndEdition (available in the library)
Robert Eisberg, Robert Resnick
 
Course objectives:
The field of atomic and molecular physics is not only fascinating field with respect to the development of far-reaching new physical ideas. It is also of enormous importance as a basis for other fields. It provides chemistry with a conceptual basis through the quantum theory of chemical bonding. Modern solid-state physics with its numerous applications in communication and computer technology, rests on the fundamental concepts first developed in atomic and quantum physics. Among other important technical applications, we mention the laser.
   
 
The problems of atomic physics which are of current interest in research are:
 
  • An increasingly detailed description of the structure of electronic shells of atoms and their excitations
  • The interaction between atoms and radiation fields, in view of their application in optical pumping
  • The physics principles that lead to the formation of condensed phases from single atoms
   

COURSE POLICY

 
Homework:
Home work problems will be assigned for each chapter. Home
works are an important part of the evaluation process.
   
Exams:
There will be two exams and a final for this course. The date and
 
time of these exams will be announced later.  Final exam will be comprehensive.
Projects:
Two library research projects will be assigned, and are due
at the end of the semester.
   
Project topics:
Quantum Computers
  Bose-Einstein Condensation
The Atom laser
Nanoclusters
Decoherence and Entanglement
Laser cooling of Atoms
Quantum Information Theory
   
Grading:
The distribution of the grades is as follows
 
Home works..........................40%
 
Exams.....................................50%
Projects..................................10%

 

                                              


Course outline

Date

Chapter/ Section

Topic

Week 1
Aug. 18
Chapter 1, 2, 3
 
Introduction, Mass and size of atom, isotopes
Problems: 2-2,2-4,2-6, 3-2,3-3
 
Week 2
Aug.25,
Chapter 5 and 6 The Photon, The Electron
Problems: 5-7, 5-9, 5-14, 5-18,5-21,6-2, 6-5, 6-7
week 3,4
Sep 11
Sep 8
Chapter 7 - 10 Review of Quantum Mechanics: Matter waves, Basic quantum mechanics, Hydrogen atom
Problems: 7-1,9-11,9-14,9-16,10-1, 10-2,
week 5,6,
Sep 15
Sep 22
Chapter 11, 12
The Spectra of Alkali Atoms, Orbital and Spin Magnetism
Problems: 11-1, 11-3,12-5, 12-6, 12-9
week 7
Sep 29
Chapter 16
General Laws of Optical Transitions
Problems
week 8, 9
Oct. 8
Oct. 13
Oct. 20
Chapter 17,19 Many electron atoms and Structure of the Periodic System
Problems: 17-2, 17-3, 17-4, 19-1, 19-2, 19-3, 19-4, 19-5, 19-6, 19-7,
week 10, 11
Oct. 20
Oct. 27

Handouts and Notes
Molecular Structure and Molecular Spectra
week 11, 12
Nov. 3
Nov. 10
Handouts and Notes
Molecular Structure and Molecular Spectra
week 13
Nov. 17
Chapter 21 Electronic Spectra of Molecules
week 14, 15
Nov. 17, 24
Chapter 23
The Laser
week 16
Dec 1
Notes New applications, and current advances in atomic Physics