The never ending question: which books?

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The discussion centers on selecting an optimal set of mathematics books for thorough study, particularly for someone with a physics background. The individual has previously studied various mathematical topics and is now seeking updated recommendations, expressing interest in books by Pugh, Koerner, and Potter for set theory and analysis. They outline a structured study path that includes set theory, analysis, linear algebra, topology, complex analysis, functional analysis, and eventually differential geometry, with a focus on preparing for quantum field theory (QFT) and general relativity (GR). Suggestions for specific texts and authors are solicited, emphasizing the need for contemporary resources. The ultimate goal is to build a solid mathematical foundation to tackle advanced physics topics effectively.
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I want to study mathematics again (I have a degree in physics). I studied with Mathematical Analysis (Apostol) and a Linear Algebra book of "somebody" in my University (not so good). I studied Naive Set Theory (Halmos) and then some more advanced mathematics (complex analysis, real analysis, functional analysis, groups, ...). However, now I want to study it all back more thoroughly (in my spare time; I work outside the university).

One of my problems is that I want the choose THE optimal set of books. For example, I do not want to study Apostol again if it is already old and there is a "better" book. For example, after some browsing in amazon I have seen a new book by Pugh which is quite well received. Also another one by Koerner (in GMS).

My path is going to be:

1. Set theory (maybe Halmos, but is there another suggestion? I have seen one by Potter that seems quite good).
2. Analysis (Pugh? Koerner? little Rudin? Apostol? something else? + maybe counterexamples in analysis) and Linear algebra (Lang? Roman? Linear Algebra done right? + maybe Halmos problem book)
3. Topology (Munkres + counterexamples in topology) and Complex Analysis (Lang + Lang problem book)
4. Analysis (Lieb and Loss) and something of combinatorics and graph theory?
5. Functional Analysis (Lax and Zeidler + Halmos problem book?)

Later, there are many other things to study (Algebra, probability, number theory, measure, geometry, algebraic geometry, ...) but let us pause with the previous 5 points:

What are the suggestions for this path of study? Would you suggest something better/different? The final purpose of all this study is to study QFT and GR in a "correct" way.

Thank you in advance.
 
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Then you'd better thrown a differential geometry book into the mix.
 
quasar987 said:
Then you'd better thrown a differential geometry book into the mix.

Definitely, quasar987. I have not included it because my first milestone is to understand better QM, and for this I need mainly functional analysis. When (if?) I do the step towards GR and QFT with non-trivial backgrounds, I will definitely go towards differential geometry (BTW, what people think about Naber books?).
 
Here is a little puzzle from the book 100 Geometric Games by Pierre Berloquin. The side of a small square is one meter long and the side of a larger square one and a half meters long. One vertex of the large square is at the center of the small square. The side of the large square cuts two sides of the small square into one- third parts and two-thirds parts. What is the area where the squares overlap?

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