Nevşehir Hacı Bektaş Veli University Course Catalogue

Information Of Programmes

FACULTY OF LETTERS & SCIENCE / FİZ403 - PHYSICS

Code: FİZ403 Course Title: ATOMIC AND MOLECULAR PHYSICS Theoretical+Practice: 4+0 ECTS: 6
Year/Semester of Study 4 / Fall Semester
Level of Course 1st Cycle Degree Programme
Type of Course Compulsory
Department PHYSICS
Pre-requisities and Co-requisites None
Mode of Delivery Face to Face
Teaching Period 14 Weeks
Name of Lecturer MELTEM DEĞERLİER GUIOT (mdegerlier@nevsehir.edu.tr)
Name of Lecturer(s)
Language of Instruction Turkish
Work Placement(s) None
Objectives of the Course
The structure of atoms and molecules, energy levels, wave functions and electromagnetic transitions to teach conceptually.

Learning Outcomes PO MME
The students who succeeded in this course:
LO-1 Atomic spectra, Bohr model of hydrogen atom, atomic vector model and the Schrodinger equation for an electron atom are known and resolved. PO-2 To solve problems utilizing scientific reasoning quantitative methods, and acquired knowledge and skills.
Examination
Performance Project
LO-2 Zeeman and Stark effect, two-electron excited states of atoms and the basic know. PO-1 To demonstrate their knowledge of the basic scientific principles and fundamental concepts and skills of the field.
PO-2 To solve problems utilizing scientific reasoning quantitative methods, and acquired knowledge and skills.
Examination
Performance Project
LO-3 Students, atomic models, energy levels, the nature of radiation, the light spectrum analysis, and can reveal areas of application in science and technology. PO-1 To demonstrate their knowledge of the basic scientific principles and fundamental concepts and skills of the field.
PO-2 To solve problems utilizing scientific reasoning quantitative methods, and acquired knowledge and skills.
Examination
Performance Project
PO: Programme Outcomes
MME:Method of measurement & Evaluation

Course Contents
Atomic spectra, Bohr hydrogen atom model, the atomic vector model, an electron atoms for the Schrodinger equation, the hydrogenic atomic fine structure, Zeeman and Stark effect, two-electron atoms of the core and the excited state, multi-electron atoms, the periodic system, Hund's rules.
Weekly Course Content
Week Subject Learning Activities and Teaching Methods
1 Classical two-body problem Course lectures and presentation, Question ans answer
2 Atomic models Course lectures and presentation, Question ans answer
3 The solution of the centripetal field problem in the hydrogen atoms-I Course lectures and presentation, Question ans answer
4 The solution of the centripetal field problem in the hydrogen atoms-I Course lectures and presentation, Question ans answer
5 fine structure and hyperfine structure in atomic spectroscopy Course lectures and presentation, Question ans answer
6 spectroscopic notation and energy levels Course lectures and presentation, Question ans answer
7 Transition probabilities and selection rules Course lectures and presentation, Question ans answer
8 mid-term exam
9 Zeeman effect Course lectures and presentation, Question ans answer
10 Stark effect Course lectures and presentation, Question ans answer
11 Molecular structure Course lectures and presentation, Question ans answer
12 Molecular spectra Course lectures and presentation, Question ans answer
13 Ionic bonds Course lectures and presentation, Question ans answer
14 Rotational, vibrational and electronic transition spectrum Course lectures and presentation, Question ans answer
15 Laser Course lectures and presentation, Question ans answer
16 final exam
Recommend Course Book / Supplementary Book/Reading
1 Atom ve Molekül Fiziği, Prof. Dr. Erol Aygün, Prof. Dr. Mehmet Zengin, Bilim Yayınları, Ankara, 1995.
2 Atom ve Molekül Fiziği, B. H. Bransden - C. J. Joachain, Bilim Yayıncılık
Required Course instruments and materials
1-) Atom ve Molekül Fizi?i, Prof. Dr. Erol Aygün, Prof. Dr. Mehmet Zengin, Bilim Yay?nlar?, Ankara, 199 2-) Atom ve Molekül Fizi?i, B. H. Bransden - C. J. Joachain, Bilim Yay?nc?l?k5. 3-) Haken, H., Wolf, H.C. 2000; The Physics of Atom and Quanta , Springer

Assessment Methods
Type of Assessment Week Hours Weight(%)
mid-term exam 7 2 40
Other assessment methods
1.Oral Examination
2.Quiz
3.Laboratory exam
4.Presentation
5.Report
6.Workshop
7.Performance Project
8.Term Paper
9.Project
final exam 16 2 60

Student Work Load
Type of Work Weekly Hours Number of Weeks Work Load
Weekly Course Hours (Theoretical+Practice) 4 14 56
Outside Class
       a) Reading 4 14 56
       b) Search in internet/Library 1 14 14
       c) Performance Project 0
       d) Prepare a workshop/Presentation/Report 0
       e) Term paper/Project 0
Oral Examination 0
Quiz 0
Laboratory exam 0
Own study for mid-term exam 2 6 12
mid-term exam 2 1 2
Own study for final exam 3 8 24
final exam 2 1 2
0
0
Total work load; 166