seriously disabled Posted March 21, 2014 Share Posted March 21, 2014 (edited) Could someone please give me a complete list of all the mathematics that I need to know in order to be able to understand quantum field theory and string theor/superstring theory/M-theory. Edited March 21, 2014 by seriously disabled Link to comment Share on other sites More sharing options...
imatfaal Posted March 21, 2014 Share Posted March 21, 2014 No - probably not. Here are a few approximations HOW to BECOME a GOOD THEORETICAL PHYSICIST - Gerald 't Hooft http://www.staff.science.uu.nl/~hooft101/theorist.html The Theoretical Minimum - Leonard Susskind http://scienceblogs.com/builtonfacts/2013/02/12/the-theoretical-minimum-by-susskind-hrabovsky/ There are the levctures at Stanford (google them for youtube/apple versions) and the books. This is the classical mechanics edition - qm will be out by christmas, but this one has a lot to going on with. It is a terrible thing to say - but I don't think that everyone can understand, at a good mathematical level, things like string theory etc. Ed Witten got a fields medal for the maths he had to invent to push the physics along - this is not simple stuff Link to comment Share on other sites More sharing options...
ajb Posted March 22, 2014 Share Posted March 22, 2014 It will depend on your tastes and interests, but a non-inclusive list of more advanced mathematics you would be expected to know include (in no particular order); Algebra; vector spaces, rings, fields, abstract algebras, Lie algebras. Category theory; the language and basic notions such as functors and natural transformations. Differential geometry; manifolds, metrics, fibre bundles, vector bundles, tensors, differential forms, Cartan calculus, connections, symplectic and Poisson structure etc. Lie theory; Lie groups and Lie algebras, a little representation theory. Functional analysis; Hilbert spaces, Fock spaces, linear operators and some basic results from measure theory, Index theorems. Calculus of variations; Euler-Lagrange equation, deriving equations of motion, Hamilton's principal, the notion of an action etc. Algebraic topology; homotopy groups, differential complexes, various homology and cohomology groups. Algebraic geometry; sheaves. From there you will develop your tastes and interests...maybe this list also reflects mine so others may well suggest other things. Link to comment Share on other sites More sharing options...
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