Home page for
3305: Mathematics for General Relativity (2009)
Course outline
Lectures
- Wednesday 11-1, room 505
- Friday 9-10, room 505
Topics covered
- 7.10: Introduction to course. Definition of a manifold. Examples of surfaces and manifolds.
- 9.10: Definition of (0,1)-tensor. Einstein summing convention.
- 14.10: Definition of (1,0)-tensor, scalar, and (p,q)-tensor.
Operations on tensors.
- 16.10: Vector analysis in R3.
- 21.10: Curves on manifolds, tangent vector to curves,
length of (tangent) vector, metric tensor, signature, line element.
- 23.10: General comments on metric tensor. Length does not depend on coordinates.
- 28.10: Raising and lowering indices, definition of geodesics.
- 30.10: Geodesic equation in local coordinates. Definition of Christoffel symbols.
- 4.11: Examples of geodesics, Special relativity, inertial frame, Lorentz transformations
- 6.11: Lorentz transformations cont., Minkowski metric, time-, space-, and light-like curves.
- 9-13.11: reading week.
- 18.11: Time dilation, proper time, momentum and energy
- 20.11: rest energy, energy tensors
- 25.11: Covariant derivative, absolute derivative, Riemann curvature tensor
- 27.11: Symmetries of the Riemann curvature tensor
- 2.12: Geodesic deviation, Ricci curvature, scalar curvature, Einstein field equations
- 4.12: Einstein field equations
- 9.12: Postulate of GR, GR and Newton's first law, GR implies Newtonian gravity
- 11.12: GR implies Newtonian gravity (continued).
- 16.12: Geodesics of the Schwarzschild equation and light deflection
Contact and office hour
The course has ended. For my current contact information, see my
homepage.
Exercises
-
Exercise 1 (pdf)
-
Exercise 2 (pdf)
- Exercise 3 (pdf)
- Exercise 4 (pdf)
- Exercise 5 (pdf)
- Exercise 6 (pdf)
- Exercise 7 (pdf)
- Exercise 8 (pdf)
- Exercise 9 (pdf)
Mathematica notebook for problem 2 .pdf and .nb)
Solution available to instructors on request.
Grading: 90% by final exam and 10% by coursework. In computing the
final coursework score, the exercise with lowest score will be discarded.
Recommended reading
The lectures will mainly follow the lecture notes from the last
two years:
-
C. Boehmer, General relativity, lecture notes,
pdf
Some textbook is recommended to complement the lectures and the above
lecture notes. A short text book that covers almost everything in
the course is:
- J. Foster, J.D. Nightingale, A short
course in General Relativity, Second editition.
There are many books on this topic. Please see the reading list
in lecture notes above, or come and talk with me.
Matias Dahl