What math do I need to know to understand General Relativity

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SUMMARY

The forum discussion centers on the mathematical prerequisites necessary for understanding General Relativity (GR). Key topics include the importance of differential geometry, calculus, and linear algebra as foundational tools. Recommended resources include "Exploring Black Holes" by Wheeler and Taylor, and "Gravitation" by Misner, Thorne, and Wheeler, which provide accessible introductions to GR. The discussion emphasizes that while advanced topics like topology may not be immediately necessary, a solid grasp of special relativity and Lagrangian mechanics is crucial for progressing in GR studies.

PREREQUISITES
  • Calculus and its prerequisites
  • Linear Algebra
  • Differential Geometry
  • Special Relativity
NEXT STEPS
  • Read "Exploring Black Holes" by Wheeler and Taylor for an elementary introduction to GR.
  • Study "Gravitation" by Misner, Thorne, and Wheeler for a comprehensive understanding of GR and its mathematics.
  • Learn about tensor calculus through "Schaum's Tensor Calculus" to grasp essential concepts for GR.
  • Explore "The Feynman Lectures on Physics, Volume 1" for foundational insights into special relativity.
USEFUL FOR

This discussion is beneficial for students, particularly high schoolers and early college students, who are interested in pursuing General Relativity and need guidance on the necessary mathematical foundations.

  • #31
As the general math background for physics, V.I. Arnold's Mathematical Methods of Classical Mechanics is the best.
 
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  • #32
Felix Quintana said:
I'm a 16 year old whose summer goal is two understand general relativity, but I'm lost on what math to have to understand it, I understand topological spaces and a topological manifold. but then it becomes more complicated math, and I know I simply don't understand because of the mathematics.

Calculus, basic linear(matrix) algebra, some differential equation familiarity, tensor algebra and analysis. Tensors are a part of differential geometry and are absolutely essential for understanding GR. Shaum's Tensor Calculus may be helpful, not really knowing more details. It includes needed linear algebra, and some other topics like tensor fields on manifolds. Its an outline, but should enable you to reach your goal. Don't be too discouraged. Einstein needed help on some math before he could complete his theory. :headbang:
 
  • #33
For SR try The Feynman lectures, vol. 1.
 
  • #34
This might seem strange but the most understandable book that I read was "The Large Scale Structure of Space-Time" by Hawkins and Ellis. Of course this was after I had gone through several other books that left an aura of mystery about a lot of things. In my mind that book nailed down a lot! Now I can read "Gravity" (which sort self reflects because it's weight certainly proves Gravity) without a hitch; and the details are just that details.
 
  • #35
micromass said:
Also, can you explain us why people care about the Hausdorff property? Can you explain why we care about compactness? Why do we let manifolds be second countable?

Sorry, but I want to gauge your topology knowledge.

I too am trying understand GR, and have read most of MTW. I can't recall any mention of the Hausdorff property in that tome. How is it necessary to understand curvature?

And to the OP, you can download Schutz for free from this site. It is a very good intro to GR.
 
  • #36
Kevin McHugh said:
I too am trying understand GR, and have read most of MTW. I can't recall any mention of the Hausdorff property in that tome. How is it necessary to understand curvature?

A spacetime is by definition Hausdorff. So it is already needed for the very definition of what we're working with. If MTW doesn't need the Hausdorff property, then MTW is just not a rigorous book. That's ok, I'm not saying that physics books need to be mathematically rigorous. But the OP mentioned Wald, and Wald definitely is rigorous (and does cover the Hausdorff property).
 
  • #37
micromass said:
A spacetime is by definition Hausdorff. So it is already needed for the very definition of what we're working with. If MTW doesn't need the Hausdorff property, then MTW is just not a rigorous book. That's ok, I'm not saying that physics books need to be mathematically rigorous. But the OP mentioned Wald, and Wald definitely is rigorous (and does cover the Hausdorff property).

:cool: Thanks for that micromass. You do learn something new every day.
 

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