1	Course Title:	QUANTUM MECHANICS
2	Course Code:	FZK3009
3	Type of Course:	Compulsory
4	Level of Course:	First Cycle
5	Year of Study:	3
6	Semester:	5
7	ECTS Credits Allocated:	6
8	Theoretical (hour/week):	5
9	Practice (hour/week) :	0
10	Laboratory (hour/week) :	0
11	Prerequisites:	Maths, Physical Mathematics, Mechanics, Electric, Optics and Waves
12	Recommended optional programme components:	None
13	Language:	Turkish
14	Mode of Delivery:	Face to face
15	Course Coordinator:	Doç. Dr. MÜRŞİDE ŞAFAK HACIİSMAİLOĞLU
16	Course Lecturers:	Doç. Dr. Mürşide ŞAFAK HACIİSMAİLOĞLU
17	Contactinformation of the Course Coordinator:	Doç. Dr. Mürşide HACIİSMAİLOĞLU, msafak@uludag.edu.tr, (0224) 2941697, Fen Edebiyat Fakültesi, Fizik Bölümü 16059 Görükle Kampüsü Bursa
18	Website:
19	Objective of the Course:	To provide students with a basic knowledge of the concepts and applications of quantum mechanics. This course is part one of a two semester course focused on a rigorous exposition to the principles of Quantum mechanics. The Dirac bra-ket formalism will be introduced and used throughout to present the principles of Quantum Mechanics in a general context. We will discuss anyalytic solutions to the Schr¨odinger equation for a variety of potentials in one, two and three dimensions. The role of symmetries as the underlying principle of Quantum Mechanics will be emphasized throughout the course. The use of symmetry principles and operators methods will be discussed
20	Contribution of the Course to Professional Development	Application of the principles of quantum mechanics to unfamiliar problems. To be able to understand easly high technology such as nanotechnology and have leading-ideas to develop hightechnology

21

Learning Outcomes:

1 Gains the idea of quantum physics and can compare it with classical physics. ; 2 Knows quantum mechanical concepts such as wave-particle duality, wave function, operator, commutativity and their importance.; 3 Must be able to establish and solve quantum equations of motion according to the physical states of quantum particles. ; 4 Learn how to obtain physical information about particles (such as energy, momentum, and position) using wave functions and operators.; 5 Understands how quantum physics directs and affects technological developments, realizes that today's technology is rapidly advancing towards quantum technology, and has the ability to research the principles and methods of transferring quantum physics to technology.;

22	Course Content:

Week	Theoretical	Practical
1	Why Quantum Physics?; Viewpoints of classical and quantum physics.
2	Early Quantum Theory; Emergence and development of quantum physics, light and material waves
3	Wave Mechanics: Wave function and its properties, Probability
4	Wave packets, Obtaining physical information from wave function
5	Quantum Equation of Motion: Time dependent Schrödinger equation; Operators, Expectation values, Probability flux, Conservation of probability
6	Steady States: Time-independent Schrödinger equation, Physical and mathematical properties of steady states
7	Applications of Time-Independent Schrödinger Equation (Constant potentials); Potential wells, Potential barriers
8	Applications of the Time-Independent Schrödinger Equation (Variable potentials); Quantum simple harmonic motion
9	Operators in Quantum Mechanics, Algebraic operations with operators,
10	Properties of operators, Commutativity, Hermitianity
11	Measurement and the principle of correspondence in Quantum Physics, What is measurement? Evaluation and interpretation of measurement results
12	Possibilities of obtaining physical information from measurement results, compatibility relations between classical and quantum physics
13	Single Electron Atoms: (Application of Schrödinger Theory), Solutions of Schrödinger equation in spherical coordinates, obtaining wave functions and energy eigenvalues. Quantum states of electrons
14	Angular Momentum, Orbital and Spin Angular Momentum, Matrix Representations, Eigenvalues ??and Eigenvectors, Pauli Spin Matrices

23	Textbooks, References and/or Other Materials:	1. Prof. Dr. Mürsel ALPER Ders Notları (2020) 2. Bekir Karaoğlu, Kuantum Mekaniğine Giriş 3. Tekin Dereli ve Abdullah Verçin, ODTÜ, Geliştirme Vakfı Yayıncılık ve İletiştim A.Ş. Ankara (1998
24	Assesment

TERM LEARNING ACTIVITIES	NUMBER	PERCENT
Midterm Exam	1	40
Quiz	0	0
Homeworks, Performances	0	0
Final Exam	1	60
Total	2	100
Contribution of Term (Year) Learning Activities to Success Grade		40
Contribution of Final Exam to Success Grade		60
Total		100
Measurement and Evaluation Techniques Used in the Course	The system of relative evaluation is applied.
Information

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ECTS / WORK LOAD TABLE

Activites	NUMBER	TIME [Hour]	Total WorkLoad [Hour]
Theoretical	14	5	70
Practicals/Labs	0	0	0
Self Study and Preparation	14	5	70
Homeworks, Performances	0	3	30
Projects	0	0	0
Field Studies	0	0	0
Midtermexams	1	2	2
Others	0	0	0
Final Exams	1	2	2
Total WorkLoad			174
Total workload/ 30 hr			5,8
ECTS Credit of the Course			6

26	CONTRIBUTION OF LEARNING OUTCOMES TO PROGRAMME QUALIFICATIONS
PQ1 PQ2 PQ3 PQ4 PQ5 PQ6 PQ7 PQ8 PQ9 PQ10 PQ11 PQ12 LO1 5 4 4 4 3 0 0 0 4 0 0 0 LO2 4 5 3 4 4 0 0 0 0 0 0 0 LO3 5 4 4 3 3 0 0 0 0 0 0 0 LO4 4 4 5 3 3 0 0 0 0 0 0 0 LO5 5 4 2 2 4 0 0 0 0 0 0 0

LO: Learning Objectives

PQ: Program Qualifications

Contribution Level:

1 Very Low

2 Low

3 Medium

4 High

5 Very High