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COURSE INFORMATION
Course CodeCourse TitleL+P HourSemesterECTS
FIZ 511QUANTUM FIELD THEORY - I3 + 01st Semester7,5

COURSE DESCRIPTION
Course Level Master's Degree
Course Type Elective
Course Objective The main purpose of this course is to introduce the calculational methods of quantum field theory and the formalism of Feynman diagrams
Course Content Synopsis of Particle Physics, Single-particle Relativistic Wave Equations, Lagrangian Formulation and Gauge Fields, Canonical Quantization and Particle Interpretation, Path Integrals and Quantum Mechanics
Prerequisites No the prerequisite of lesson.
Corequisite No the corequisite of lesson.
Mode of Delivery Face to Face

COURSE LEARNING OUTCOMES
1To learn quantazing the classical fields.
2To begin doing research.

COURSE'S CONTRIBUTION TO PROGRAM
PO 01PO 02PO 03PO 04PO 05PO 06PO 07PO 08PO 09
LO 00153  4    
LO 00253  4    
Sub Total106  8    
Contribution530040000

ECTS ALLOCATED BASED ON STUDENT WORKLOAD BY THE COURSE DESCRIPTION
ActivitiesQuantityDuration (Hour)Total Work Load (Hour)
Course Duration (14 weeks/theoric+practical)14342
Hours for off-the-classroom study (Pre-study, practice)14684
Mid-terms13030
Final examination13939
Total Work Load

ECTS Credit of the Course






195

7,5
COURSE DETAILS
 Select Year   


 Course TermNoInstructors
Details 2020-2021 Fall1MUZAFFER ADAK


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Course Details
Course Code Course Title L+P Hour Course Code Language Of Instruction Course Semester
FIZ 511 QUANTUM FIELD THEORY - I 3 + 0 1 Turkish 2020-2021 Fall
Course Coordinator  E-Mail  Phone Number  Course Location Attendance
Prof. Dr. MUZAFFER ADAK madak@pau.edu.tr FEN B0305 %70
Goals The main purpose of this course is to introduce the calculational methods of quantum field theory and the formalism of Feynman diagrams
Content Synopsis of Particle Physics, Single-particle Relativistic Wave Equations, Lagrangian Formulation and Gauge Fields, Canonical Quantization and Particle Interpretation, Path Integrals and Quantum Mechanics
Topics
WeeksTopics
1 Gravitation, Strong and weak interactions, The quark model
2 SU(2), SU(3), SU(4), ..., Colour, QCD, Weak interactions
3 Relativistic notation, Klein-Gordon equation, Dirac equation
4 Predictions of antiparticles, Algebra of gamma matrices, Non-relativistic limit
5 The relevance of the Poincare group, Maxwell and Proca equations
6 Lagrangian formulation of particle mechanics, Variational principle and Noether’s theorem, Complex scalar fields
7 Topology and the vacuum, The Yang-Mills field, The geometry of gauge fields
8 Topology and the vacuum, The Yang-Mills field, The geometry of gauge fields
9 The real Klein-Gordon field, The complex Klein-Gordon field, The Dirac field
10 The electromagnetic field, Radiation gauge quantization, Lorenz gauge quantization, The massive vector field
11 Path-integral formulation of quantum mechanics
12 Perturbation theory and the S matrix
13 Functional calculus: differentiation
14 Further properties of path integrals
Materials
Materials are not specified.
Resources
ResourcesResources Language
Lewis H Ryder, Quantum Field Theory, Cambridge University PressTürkçe
Course Assessment
Assesment MethodsPercentage (%)Assesment Methods Title
Final Exam50Final Exam
Midterm Exam50Midterm Exam
L+P: Lecture and Practice
PQ: Program Learning Outcomes
LO: Course Learning Outcomes