) Joel Friedman's CPSC 531F Page: References and Resources

Topological Data Analysis, CPSC 531F Page, Spring 2025: References and Resources

This page gives some references and resources for TDA (Topological Data Analysis), for CPSC 531F, Winter 2024-25, Term 2.

Materials below may have errors! Errors will be corrected either here or in class. If you are not attending my classes: use these materials at your own risk!

This entire webpage is currently (January 2025) UNDER CONSTRUCTION.

References UNDER CONSTRUCTION!! We may use a number of references. I believe that all these references are free of charge, at least if you have a UBC library card or a CWL with library privileges.
  • Linear Algebra and Applications: I may refer to my older topics course, namely my my Spring 2021 course on Applications of Linear Algebra, especially the reference page for this course, especially the textbook Matrix Analysis, by Horn and Johnson, (1985 edition, online from the UBC Library) which covers most of standard linear algebraic needed.
  • Algebraic Topology and Differential Geometry: There are a lot of excellent references for algebraic topology and differential geometry available either free of charge, or at least free to download with UBC library privileges (you'll find dozens of such textbooks at UBC library main webpage, by typing "Algebraic Topology," and when you get the result clicking "Full Text Online" and "Book/eBook"...) Most textbooks on algebraic topology begin by discussing the fundamental group, because it is easier to define and as important as (co)homology groups. Below are a few that I'll refer to this term.
    • Singular Homology Theory, by W.S. Massey. This textbook begins with cubical singular homology, which has numerous pedagogical advantages over simplicial homology (singular and regular). For example, since the product a cube and an interval is again a cube, the proof that two homotopic spaces have the same homology groups is cleaner (otherwise you have to triangulate the product of a simplex and an interval).
    • Algebraic Topology, by Allen Hatcher (see also Hatcher's webpage on this textbook). This textbook has many examples. Chapter 2, Section 1 (is independent of Chapter 1 on homotopy groups and) gives you all the basics: Δ-complexes, simplicial complexes, simplicial homology, and its agreement with singular homology (the usual, triangular version). (You will need to triangulate the product of two simplicies, but this is not too annoying. On the bright side, the suspension of a Δ-complex or a simplicial complex is immediately another one.)
    • Differential Forms in Algebraic Topology, by Bott and Tu. The easiest (co)homology theory to construct comes from differential forms, and differential forms have many applications in physics.
    • Although we may not use this, I admire the approach of Fundamentals of Algebraic Topology, by Weintraub. This textbook discusses homology by starting from the Eilenberg-Steenrod axioms (Chapter 3), and then figures things out from there. (The point is that no one directly uses singular homology to compute homology groups of topological spaces, except in a few simple cases. Why not stress this from the start?)
  • Algebra:
  • List another reference here: describe this reference.
  • List another reference here: describe this reference.
TDA Resources Here are some resources and articles on TDA. Most of these have been pointed out to me by others, including Tong Ling, the participants of a January 2023 Banff Workshop on Applied Hodge Theory), and others (whom I'm happy to acknowledge if they wish).

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