Akademik Dersler - Tanıtım

Course Introduction Information


Code - Course Title	FİZ429 - Solid State Physics
Course Type	Required Courses
Language of Instruction	Türkçe
Laboratory + Practice	4+0
ECTS	5.0
Course Instructor(s)	DOÇENT DOKTOR MUSTAFA KULAKCI
Mode of Delivery	The mode of delivery of this course is face to face.
Prerequisites	There is no a prerequisite or co-requisite for this course.
Courses Recomended	There is no recommended optional programme component for this course.
Required or Recommended Resources	1. Solid State Physics, J. S. Blakemore, Cambridge University Press, 1998. 2. Introduction to solid State Physics, C. Kittel, Wiley, 2004. 3. Principle of the theory of solids “Electrons and Phonons, J. M. Ziman, 1967. 4. Solid State Theory, W. A. Harrison, 5. Solid State Physics Physics, N.W. Ashcraft, N.D. Mermin. 6. Advances of Solid State Physics Series, F. Seits, D. Tumbul.
Recommended Reading List	1. Solid State Physics, J. S. Blakemore, Cambridge University Press, 1998. 2. Introduction to solid State Physics, C. Kittel, Wiley, 2004. 3. Principle of the theory of solids “Electrons and Phonons, J. M. Ziman, 1967. 4. Solid State Theory, W. A. Harrison, 5. Solid State Physics Physics, N.W. Ashcraft, N.D. Mermin. 6. Advances of Solid State Physics Series, F. Seits, D. Tumbul.
Assessment methods and criteria	2 classical midterm exam, 1 homework, and 1 classical final exam
Work Placement	N/A
Sustainability Development Goals	End Poverty , No more hunger , Health and Quality of Life , Quality Education , Gender Equality , Clean Water and Sanitation , Accessible and Clean Energy , Decent Work and Economic Growth , Industry, Innovation and Infrastructure , Sustainable Cities and Communities , Responsible Production and Consumption , Climate Action , Life in Water , Terrestrial Life , Partnerships for Purposes

Content

Weeks	Topics
Week - 1	Solid structure, phase changes, bonds between atoms
Week - 2	Crystal Structure: Introduction, Crystallography, Crystal Lattice, Base, Wigner Seitz Cell, Primitive Cell, Unit cell concepts, crystal planes and directions, Typical crystal structures: Cubic and close-packed structure, Structure of ionic solids, diamond and ZnS structures, Quasi crystals
Week - 3	Crystal Structure: X-Ray Diffraction, Bragg's Law, Reverse Lattice, Structure Factor, Atomic Form Factor
Week - 4	Crystal Dynamics: Introduction, Sound waves, vibrations of one-dimensional crystals: vibrations of crystals with identical atoms, vibrations of crystals with different diatomic atoms, vibrations of three-dimensional crystals
Week - 5	Crystal Dynamics: Phonons, Heat capacity due to lattice vibrations, Einstein and Debye Models
Week - 6	Midterm
Week - 7	Crystal Dynamics: Crystal Defects, Anharmonic Phenomena - Thermal expansion, Phonon-phonon interaction, Thermal conduction with phonons
Week - 8	Free electrons in metals: Free electron model, Energy levels in one dimension, Fermi-Dirac Distribution, Three-dimensional free electron gas, Heat capacity of electron gas
Week - 9	Metals and Conductivity; Fundamental properties of metals, Conductivity in real space, Drude model, Lorentz model, Quantized free electron model
Week - 10	Effect of periodic lattice potential - Energy bands, Classification of solids according to their electrical conductivity, Tight Bonding Approximation, effective mass
Week - 11	Midterm
Week - 12	Semiconductors
Week - 13	Fermi Surface
Week - 14	Plasmon, Polariton and Polaron

Learning Activities and Teaching Methods

Teaching Methods
Lecture
Discussion
Question & Answer
Drill - Practise
Problem Solving
Competences
Productive
Rational
Questoning
Follow ethical and moral rules
Use time effectively
Eleştirel düşünebilme
Problem solving
Information Management
To work autonomously
Elementary computing skills
Decision making

Assessment Methods

Assessment Method and Passing Requirements
	Quamtity	Percentage (%)
1.Midterm Exam	1	30
2.Midterm Exam	1	30
Final Exam	1	40
Toplam (%)		100