6 EC
Semester 2, period 4, 5
5354TOIP6Y
This course is aimed at both physics and mathematics students. The aim of the course is to demonstrate how many current mathematical methods, that can be very broadly classified as "topological", play an important role in quantum field theory and other areas of modern physics, and conversely how ideas from physics are applied in modern mathematics. The course will focus on the following topics:
If time permits, several further topics on the border line of mathematics and physics could be covered, such as topological quantum field theories, Chern-Simons theories, knot invariants and anomalies.
Geometry, Topology and Physics - M. Nakahara
Students will learn several mathematical methods from topology and how to apply those methods to physics problems. Vice versa, students will learn how to apply intuition from physics as a useful mathematical tool.
Activity | Number of hours |
Hoorcollege | 34 |
Werkcollege | 34 |
Zelfstudie | 100 |
Requirements concerning attendance (OER-B).
Additional requirements for this course:
No additional requirements.
Item and weight | Details |
Final grade | |
30% Homework | |
70% Tentamen |
The homework is optional but strongly recommended. If no homework is handed in (or in the exceptional situation where the homework lowers the grade) the exam counts for 100% of the grade. The student only passes if the exam grade is 4.5 or higher and the overall grade is 5.5 or higher.
Contact the course coordinator to make an appointment for inspection.
The 'Regulations governing fraud and plagiarism for UvA students' applies to this course. This will be monitored carefully. Upon suspicion of fraud or plagiarism the Examinations Board of the programme will be informed. For the 'Regulations governing fraud and plagiarism for UvA students' see: www.student.uva.nl
Weeknummer | Onderwerpen | Studiestof |
1 | Calculus on manifolds | Lecture notes 1 |
2 | Path integrals, Maxwel theory | Lecture notes 2 |
3 | de Rham cohomology as a topological invariant | Lecture notes 3 |
4 | Gauge theories | Lecture notes 4 |
5 | Bundles and Connections | Lecture notes 5 |
6 | Principal bundles, instantons & the Berry phase | Lecture notes 6 |
7 | Characteristic classes of vector bundles, Chern numbers | Lecture notes 7 |
8 | Chern-Simons theory, fermions & path integrals | Lecture notes 8 |
9 | No lecture | |
10 | Fermions and the Dirac operator | Lecture notes 9 |
11 | Elliptic operators and the index theorem | Lecture notes 10 |
12 | Dirac operators and supersymmetry | Lecture notes 11 |
13 | A path integral for the index | Lecture notes 12 |
14 | Spinors | Lecture notes 13 |
15 | The physics proof of the Atiyah-Singer index theorem | Lecture notes 14 |
16 | The geometry of gauge fields and a bit of knot theory | Lecture notes 15 |
The schedule for this course is published on DataNose.
N/A
This course is also part of the national MasterMath program.