Which algebraic topology textbook is the best for self-study?

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Discussion Overview

The discussion centers around the selection of algebraic topology textbooks suitable for self-study, particularly in relation to applications in physics, knot theory, and topological quantum field theory (QFT).

Discussion Character

  • Exploratory
  • Debate/contested
  • Technical explanation

Main Points Raised

  • One participant inquires about the most suitable GTM textbooks for self-study in algebraic topology, listing GTM 56, GTM 127, and GTM 153.
  • Another participant suggests that for learning algebraic topology in the context of physics, Charles Nash and Siddhartha Sen's "Topology and Geometry for Physicists" and Mikio Nakahara's "Geometry, Topology, and Physics" are recommended, with additional advanced reading from Nash's "Differential Topology and Quantum Field Theory."
  • Concerns are raised regarding the quality of Nash/Sen's book based on Amazon reviews, with specific mentions of misprints in Nakahara's text, suggesting a potential issue with the reliability of these resources.
  • A later reply emphasizes Nakahara's value for its sections on algebraic topology and differential geometry, noting its common use in physics despite some mistakes, particularly in early chapters.
  • Another participant highlights the importance of Nash and Sen's book for understanding homotopy and homology groups, quoting a positive review from Professor Tom Kibble regarding its accessibility for those with less rigorous backgrounds.
  • For topics like fiber bundles, knot theory, and topological QFT, John Baez and Javier Muniain's "Gauge Fields, Knots, and Gravity" is recommended as a helpful resource.
  • It is suggested that for a focused study on knot theory and topological QFT, one should first read Baez's book, followed by Nakahara for general concepts, and finally Nash's advanced text.

Areas of Agreement / Disagreement

Participants express differing opinions on the suitability and quality of various textbooks, with no consensus reached on which is the best for self-study. Concerns about misprints and the accessibility of the material contribute to the ongoing debate.

Contextual Notes

Limitations noted include the potential for misprints in recommended texts and the varying levels of accessibility for readers with different backgrounds in mathematics and physics.

hamster143
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I see that there are four different GTM textbooks on the subject. Which one of these is the most suitable for self-study?

GTM 56: Algebraic Topology: An Introduction / Massey
GTM 127: A Basic Course in Algebraic Topology / Massey
GTM 153: Algebraic Topology / Fulton

I want to pick up enough background material to move on to knot theory (GTM 175?) and topological QFT.
 
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To be honest probably the best way to learn algebraic topology for physics is to read:
Charles Nash and Siddhartha Sen, Topology and Geometry for Physicists, Academic Press
in conjunction with
Mikio Nakahara, Geometry, Topology, and Physics 2nd edition, A. Hilger, New York

Those will cover most topics. However for very advanced stuff, like you might need for topological field theory, read the above texts and then read:
Charles Nash, Differential Topology and Quantum Field Theory, Academic Press
 
That's an interesting idea, but Amazon reviews of Nash/Sen aren't exactly glowing. And there's one review there that accuses Nakahara of having on average one misprint per page. (See Maxwell's equations here.) My own inspection of the first two chapters revealed at least one missing "*" on page 9 and a \hbar out of nowhere on page 17.

Too bad - the table of contents looked very promising.
 
Last edited:
hamster143 said:
That's an interesting idea, but Amazon reviews of Nash/Sen aren't exactly glowing. And there's one review there that accuses Nakahara of having on average one misprint per page. (See Maxwell's equations here.) My own inspection of the first two chapters revealed at least one missing "*" on page 9 and a \hbar out of nowhere on page 17.

Too bad - the table of contents looked very promising.
Nakahara is mainly read for its sections on algebraic topology and differential geometry and is one of the best books for dealing with the Atiyah-Singer index theorem from a physicists viewpoint. It is one of the most commonly used textbooks for topology and geometry in physics. It is also an excellent reference work. There is a few mistakes, but they are mostly confined to the early chapter on QM.

Nash and Sen will give you a good example of the homotopy and homology groups. If you are concerned with reviews this is Professor Tom Kibble of Imperial College London on the book:
Professor Kibble said:
"One of the most remarkable developments of the last decade in the penetration of topological concepts into theoretical physics. Homotopy groups and fibre bundles have become everyday working tools. Most of the textbooks on these subjects were written with pure mathematicians in mind, however, and are unnecessarily opaque to people with a less rigorous background. This concise introduction will make the subject much more accessible. With plenty of simple examples, it strikes just the right balance between unnecessary mathematical pedantry and arm-waving woolliness...it can be thoroughly recommended.

Unfortunately outside these books most "Topology and Geometry" books for physicists are concerned mainly with differential geometry not algebraic topology.

For Fiber bundles, Knot theory and simple Topological QFT you might try:
John Baez and Javier Muniain, Gauge Fields, Knots, and Gravity, World Scientific Press.
Which will really help with knot theory and topological field theory.

Even if you don't try Nash and Sen, you probably will have to read Nakahara, as it is the standard reference.

If your ultimate aim is to learn knot theory and topological field theory solely I would first read Baez's book and especially try the excercises, they're great. Then read Nakahara for some general stuff on the Atiyah Singer index theorem and algebraic topology. Finally for the really serious stuff read the last book by Nash.
 

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