Graduate
Institute of Graduate Studies
Physics
Anlık RSS Bilgilendirmesi İçin Tıklayınız.Düzenli bilgilendirme E-Postaları almak için listemize kaydolabilirsiniz.

Physics Main Page / Program Curriculum / Advanced Classical Mechanics

Advanced Classical Mechanics

Course CodeSemester Course Name LE/RC/LA Course Type Language of Instruction ECTS
FBY0005 Advanced Classical Mechanics 3/0/0 DE Turkish 9
Course Goals
Students specialize in issues related to classical theoretical mechanics and will develop solving skills in high level of the physical problems.
Prerequisite(s) nothing
Corequisite(s) nothing
Special Requisite(s) nothing
Instructor(s) Assist. Prof. Dr. Ayşegül F. Yelkenci
Course Assistant(s) nobody
Schedule İKU Ataköy Campus look at the Program.
Office Hour(s) Şehsuvar Zebitay.12:00-13:00,İKU Ataköy Campus Visiting Lecturer's Room
Teaching Methods and Techniques Lecture and discussion
Principle Sources 1- Golstein, H. (1980). Classical Mechanics. London: Addison Wesley.

  2- Landau, L.D., Lifshitz, E.M. (2003). Mechanics. Volume I of Course of Theoretical Physics. Amsterdam:

     Butterworth-Heinemann.

3- Özemre, A.Y. (1981). Klasik Teorik Mekanik. İstanbul: İ.Ü. Fen Fakültesi
Other Sources 1- Haar, T. (1961). Elements of Hamiltonian Mechanics. New York: North Holland Publ. Comp.

2- Laczos, C. (1966). Variational Principles of Mechanics. Toronto: University of Toronto Press.

3- Bradbury, T.C. (1968). Theoretical Mechanics. New York: John Wiley.
Course Schedules
Week Contents Learning Methods
1. Week Generalized coordinates, configuration space.
2. Week Constraints.
3. Week The principle of virtual work, D'Alembert's principle.
4. Week Holonomic constraints and second kind Lagrange's equations.
5. Week Nonholonomic constraints and first kind Lagrange's equations.
6. Week An invariance feature of the Lagrangian.
7. Week Noether's theorem.
8. Week Lagrange equations from variational principle.
9. Week Hamilton's equations.
10. Week The physical meaning of the Hamilton's function.
11. Week Canonical transformations.
12. Week Harmonic oscillator and canonical transformation
13. Week Poisson brackets.
14. Week Hamilton-Jacobi method.
15. Week
16. Week
17. Week
Assessments
Evaluation tools Quantity Weight(%)
Midterm(s) 1 40
Final Exam 1 60


Program Outcomes
PO-1To acquire the ability of deeply understanding physical concepts, by extending knowledge and experience in physics.
PO-2To be able to understand, interpret, and synthesise interdisciplinary relations.
PO-3To be able to transfer field-specific information to other work groups in written, oral, and visual ways.
PO-4To be able to identify and evaluate problems relevant to the mastering field, by using various databases and bibliographic resources.
PO-5To be able to use the theoretical and applied information which is learned within the mastering field, with the help of information technologies.
PO-6To understand the fundamentals of physics in an advanced way and to acquire the ability of problem solving.
PO-7To adopt acting in accordance with scientific ethics.
PO-8To acquire the ability of reading and writing in at least one foreign language.
PO-9To be able to follow recent developments in the mastering field of physics, by making extensive scans of the literature.
PO-10To be able to develop individual decision and creativity skills.
Learning Outcomes
LO-1Students will develop their knowledge at the level of expertice on issues related to the classical mechanics.
LO-2they will evaluate critically the knowledge related to classical mechanics
LO-3they are able to use the knowledge obtained from advanced classical mechanics at the classical mechanics as well as other areas of physics.
LO-4they will develop problem solving skills at a high level
LO-5They will understand in depth the relationship with the classical mechanics and the other subjects of the physics and will understand its effect on the other topics of physics.
Course Assessment Matrix:
Program Outcomes - Learning Outcomes Matrix
 PO 1PO 2PO 3PO 4PO 5PO 6PO 7PO 8PO 9PO 10
LO 1
LO 2
LO 3
LO 4
LO 5