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FY809: Quantum Field Theory (10 ECTS)

STADS: 07003301

Level
Master's level course

Teaching period
The course is offered in the spring semester.
3rd. and 4th quater

Teacher responsible
No responsible teachers found, contact the department if necessary

Timetable
Group Type Day Time Classroom Weeks Comment
Common I Tuesday 14-16 U68 6
Common I Tuesday 08-10 U24A 7
Common I Tuesday 10-12 U155 8,10-11,13,16-17,19
Common I Tuesday 08-10 U24 9
Common I Tuesday 08-10 U155 12,18
Common I Tuesday 14-16 U152 15
Common I Wednesday 12-14 U68 5,16,19
Common I Wednesday 10-12 U155 6
Common I Wednesday 14-16 U155 7,17
Common I Wednesday 14-16 U154 8,15
Common I Wednesday 14-16 U68 9-11
Common I Wednesday 15-17 U21 12
Common I Wednesday 14-16 U151 13
Common I Wednesday 08-10 U68 18
Common I Thursday 14-16 U68 5
H1 TE Thursday 14-16 U68 8-9
H1 TE Thursday 14-16 U142 10
H1 TE Thursday 14-16 U12 13
H1 TE Thursday 10-12 U20 15
H1 TE Thursday 08-10 U68 16-18
H1 TE Thursday 12-14 U68 19
H1 TE Friday 10-12 U68 5,7
H1 TE Friday 08-10 U147 6
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Prerequisites:
None

Academic preconditions:
Bachelor's degree in physics or mathematics. FY803 Quantum physics must have been attended.

Course introduction
We provide elements of Quantum Field Theory. We will introduce Quantum Electrodynamics, Quantum Chromodynamics and Weak interactions. These forces constitute the Standard Model of particle interactions. We will also discuss possible new extensions of the standard model which can be discovered at the Large Hadron Collider at CERN. This course is a pillar for any physicist and mathematician interested in the latest developments in high energy physics and the interplay of physics and advanced mathematics.

Expected learning outcome
After completing the course, the student is expected to be:

• Able to use advanced techniques, in quantum field theory to:
  1. Derive the Feynman rules for bosons and fermions
  2. Compute tree-level and radiative corrections for, e.g. e+ e- in μ+ μ-
  3. Compute the renormalization of the electromagnetic, weak and strong charge
  4. Compute critical exponents and its applications to quantum and thermal phase transitions
  5. Compute Deep Inelastic Scattering
  6. Use novel High Energy Dedicated computer packages, such as CalcHEP/LanHEP, to derive the Feynman diagrams automatically

• Critically interpret the results of the experiments at the European Center for Nuclear Research (CERN) Geneva.



Subject overview
The Klein Gordon and Dirac Fields. Feynman Diagrams. The Gauge Principle. Quantum Electrodynamics and associated elementary processes. Path integral and renormalization.

Literature
There isn't any litterature for the course at the moment.

Website
This course uses e-learn (blackboard).

Prerequisites for participating in the exam
None

Assessment and marking:
Block 1 (3rd. quater): The first block is concluded by a project centered on the topics presented in the course and a brief oral exam, based on the content of the project. The project counts for 50 % of the final mark. Internal second examiner.

Block 2 (4th quater): Oral exam of a relevant topic, agreed upon with the teacher. The presentation counts for 50 % of the final mark. External second examiner.

The overall grade for the course is the average of the grades obtained in the two part exams. It must be at least 02. If this average grade is not accomplished, the student must take a reexam in the part(s) which is / are not passed. The grade -3 or “absent” must not show in any of the part exams.

Expected working hours
The teaching method is based on three phase model.

Forelæsninger: 56 timer.
Eksaminatorietimer/opgaveregning: 24 timer.
Educational activities

Language
This course is taught in English.

Course enrollment
See deadline of enrolment.

Tuition fees for single courses
See fees for single courses.