Best books for learning differential forms?

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SUMMARY

The discussion focuses on recommended textbooks for learning differential forms, particularly for individuals with a calculus background similar to that of Michael Spivak's work. Key recommendations include Spivak's "Calculus on Manifolds" for a concise introduction, Edwards' "Advanced Calculus of Several Variables" as a more detailed alternative, and John Lee's "Introduction to Smooth Manifolds" for a comprehensive yet accessible approach. Other notable mentions are Guillemin and Pollack's work for topological aspects and Cartan's differential forms for a geometric perspective.

PREREQUISITES
  • Understanding of calculus at the level of Spivak's "Calculus" series
  • Familiarity with linear algebra concepts
  • Basic knowledge of metric spaces
  • Introductory topology principles
NEXT STEPS
  • Study John Lee's "Introduction to Smooth Manifolds" for a thorough understanding of smooth manifolds
  • Explore Abraham and Marsden's "Manifolds, Tensor Analysis, and Applications" for a physical approach to differential forms
  • Read Spivak's "A Comprehensive Introduction to Differential Geometry Vol. 1" for advanced insights
  • Investigate Arnold's "Mathematical Methods of Classical Mechanics" for foundational concepts related to differential forms
USEFUL FOR

Mathematicians, physics students, and anyone interested in advanced calculus and differential geometry, particularly those preparing for courses in differential topology.

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Can someone recommend a good textbook for learning differential forms for someone with an understanding of calculus at the level of Spivak?

Thanks.
 
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The obvious choice would be Spivak's Calculus on Manifolds. Since it's rather brief, a "decompressed" alternative that I also recommend is Edwards' Advanced Calculus of Several Variables (a Dover, so it's cheap).
 
How about Cartan's differential forms?
Other than calling manifold "variety", I heard this is good book.

Actually, it depends on how much you want to learn differential forms.
If you just want to learn differential forms living in R^n, spivak is perfect.
If you want to learn differential forms in general manifolds,
read Lee, doCarmo, Lang, Abraham/Marsden's manifolds book
(not Foundations of Mechanics).

(Lols to translator for not noticing that English-speaking people use the term manifolds instead of variety)
(variety is okay to stick in algebraic geometry, becuase that's the universal term
that mathematician uses)
 
The books mentioned here are very good recommendations and are some of my favorites. However, they are quite theoretical and perhaps you do not want that.
Here is a good book that is perhaps less theoretical but does contain some good stuff: https://www.amazon.com/dp/0127425101/?tag=pfamazon01-20
 
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Thanks for the suggestions. I'm trying to learn differential forms in preparation for a differential topology class that uses Pollack. I think I'll go with Spivak's Calc on Manifolds.
 
Spivak is the way to go (maybe not for first learning), but you won't regret that you bought it.

One thing to mention is that Gullemin/Pollack is more concerned with topological aspects of smooth manifolds rather analytical aspects.

After Spivak (for smooth manifolds books focusing on analytical aspects):
-For nice but slow spoonfeeding intro, read John Lee (still good to get it because you won't have too much headache and nevertheless this will be your standard textbook).
-More physical but still rigorous intro would be Abraham/Marsden's Manifolds book.
-Hardcore treatment would be Lang
 
Would Spivak's Caclulus book prepare one for the exercises in his Calculus on Manifolds?

I think the other books mentioned assume less knowledge of topology and analysis.

Also, just in case it's not clear, there are two advanced calculus books by different Edwards, Advanced Calculus: A Differential Forms Approach by Harold M. Edwards and Advanced Calculus of Several Variables by C. Henry Edwards. Henry doesn't cover differential forms until about chapter 5, while Harold starts right off with them.
 
  • #10
For Calculus on Manifolds, I would say the necessary and sufficient prerequisite knowledge is his Calculus as well as linear algebra and some familiarity with metric spaces. To add to what chhan92 said, after Calculus on Manifolds you may want to look at Spivak's A Comprehensive Introduction to Differential Geometry Vol. 1.
 
  • #11
Oh I completely forgot about it.

It is rival of John Lee, but has distinctive pros & cons relatively
(meaning that both books are somewhat masterpiece)

John Lee:
-pros: Relatively easy to learn despite being in GTM (reads like UTM), nice set of examples to work through, topological aspects are not too shallow (he uses smooth covering maps), one of the best book for Lie groups (except books specializing in Lie groups of course)
-cons: too slow in some sense, not a good reference, relatively not too good to give good insights

Spivak Vol 1:
-pros: Nice insights (just like all of his books! (except little spivak, but oh well you need to deduce it!)), Master of exercises!
-cons (not my opinion, but amazon people's): relatively outdated in terms of teaching

I have John Lee, but maybe some day I should get Spivak Volume 1
 
  • #12
You will still want to read spivak afterwards, but a good first book is:
A geometric approach to differential forms
It explains in much greater detail (but less rigorously) the concepts of differential forms than Spivak/Munkres. I love Spivak's writing, but calculus on manifolds as a first exposure to the material made absolutely no sense to me (I'm referring to chapters 4 and 5. I had no qualms with Chapters 1-3).
 
  • #13
If you are referring to the book on differential topology by guillemin and pollack, there is no prerequisite of differential forms for reading that book. In fact chapter 4 of that book contains an elementary introduction to forms similar to that in spivak's calculus on manifolds.

still, all these recommendations of other sources seem excellent. I myself would probably read cartan, and i agree bachmann's book succeeds at giving a geometric feel for forms. As one amazon reviewer points out, chapter 7 of arnol'd's mathematical methods of classical mechanics seems to be a precursor of bachmann's book, so arnol'd might merit a look as well.
 
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