Trying to make sense of math sequence

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Discussion Overview

The discussion revolves around the prerequisites and sequential learning path for studying Differential Geometry and its relation to other mathematical subjects, particularly in the context of understanding Relativity. Participants explore various foundational topics in mathematics and their interconnections, while also expressing personal interests in geometry and calculus.

Discussion Character

  • Exploratory
  • Technical explanation
  • Conceptual clarification
  • Homework-related

Main Points Raised

  • One participant expresses confusion about the prerequisites for Differential Geometry, mentioning various opinions on the necessary background, including Calculus, Linear Algebra, Multilinear Algebra, Functional Analysis, and Topology.
  • Another participant suggests a typical order of study, recommending Calculus 1-3, Differential Equations, Linear Algebra, Introduction to Proofs, Analysis 1 and 2, Abstract Algebra, and General Topology before branching into Differential Geometry.
  • A later reply indicates a shift in interest away from Relativity towards a focus on geometric aspects of Calculus, seeking guidance on further study in geometry rather than numerical analysis.
  • Clarifications are provided regarding the differences between first and second semester Linear Algebra courses, with the first being more computational and the second more theoretical.
  • Participants discuss the content of Analysis courses, noting that Analysis 1 typically covers proofs related to sequences and single-variable calculus, while Analysis 2 extends to multi-variable calculus.
  • Suggestions for resources are made, including a specific textbook that combines Calculus and Analytic Geometry, which may align with the interests expressed by the original poster.

Areas of Agreement / Disagreement

Participants generally agree on a foundational path for studying mathematics leading to Differential Geometry, but there is no consensus on the necessity of certain subjects like Complex Analysis or Functional Analysis. The discussion reflects varying interests and focuses, particularly regarding the emphasis on geometry versus numerical analysis.

Contextual Notes

Some participants note the potential for different naming conventions and course structures in Analysis and Linear Algebra, which may vary by institution. There is also an acknowledgment of the subjective nature of interest in different mathematical areas, which may influence the learning path.

Who May Find This Useful

This discussion may be useful for individuals interested in pursuing advanced mathematics, particularly those looking to understand the prerequisites for Differential Geometry and the relationships between various mathematical subjects.

timeevaporate
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Hi All,

I posted this text below in another forum, but didn't get much feedback. I realize I might sound extremely ignorant, but I need directions. Thanks.


"Awhile ago I decided I wanted to learn Relativity comprehensively. I was told that I better brush up on my Differential Geometry if I wanted to delve deeper into Relativity. So I decide to find out what the prerequisites for Diff. Geo were. Some say, Calc 1-3 and Linear Algebra would suffice, others say I should take intro to Multilinear Algebra, whose prereqs are, apparently, Functional Analysis and Topology according to some; yet others claim I must know Linear Algebra and Abstract Algebra as a bridge to Multilinear Algebra and, further into, Diff. Geo. Then, I find out that Functional Analysis has its own prereq like Measure Theory. How do Real Analysis and Complex Analysis, Differential Equations fit into all this? Are there overarching/ more fundamental subjects that treat the above-mentioned subjects as their integral topics?

At this point I don't even care to know what EXACTLY I need for Diff Geo., because I'll, probably, be correctly told to ditch this and pick up that on the road to Diff. Geo, but now that I know these subjects exist I'd rather study them since I find the idea of them very interesting. And if it takes me forever to converge the knowledge of these subjects into a comprehensive intro into Relativity- so be it. I am not even worried about the result here, I want to enjoy the process since math/physics is a little hobby of mine and I am a late- commer to these subjects. I am not out to make a profession out of this, nor do I care to prove anything to anyone else. I feel just because I am a layman doesn't mean I have to limit myself to some very unsatisfying pop-science texts. So far, I am getting ready to teach myself Calc 3 and probably take an intro to Proofs.

That said, could somebody, please, weave these subjects and fit them with each other in a more logical and sequential way with, possibly, some missing subjects as prereqs and stepping stones for me?

By the way, a couple of very stupid questions- Is Analysis arranged in a manner Calculus is typically arranged? That is, Analysis 1, Analysis 2 etc? I mean Calc is self-contained, is Analysis also? If not, what would be the most important Analysis topics/ideas/concepts for people like me? Again, I am not scared of difficulties and I have my whole life to learn all this.

Thanks."
 
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You seem quite confused. For general relativity you must know differential geometry and differential manifolds. But if what your asking for is what background you need and in what order? A typical order would be Calculus 1-3, differential equations, 1st semester linear algebra(maybe a second second semester course), Introduction to Proofs,Analysis 1 and 2, abstract algebra, General Topology. From here you could branch out into differential geometry etc. I wouldn't think you would need complex analysis or functional analysis but it doesn't hurt.
 
halo31 said:
You seem quite confused. For general relativity you must know differential geometry and differential manifolds. But if what your asking for is what background you need and in what order? A typical order would be Calculus 1-3, differential equations, 1st semester linear algebra(maybe a second second semester course), Introduction to Proofs,Analysis 1 and 2, abstract algebra, General Topology. From here you could branch out into differential geometry etc. I wouldn't think you would need complex analysis or functional analysis but it doesn't hurt.

Thanks for the response. The thing is I am not really all that interested in Relativity anymore. I guess I should have worded this differently. Right now I like the geometric part of Calculus a lot and anything that has to do with studying and classifying numbers- no so much. What would be the better way to study further if I am really into Calculus/Geometry and less into work with numbers? In other words, I'd like to know if there's some kind of ultimate Geometry challenge I could work my way up to. :)

Thanks.edit: Whatever the case, I think what you outlined seems like a good path to take, so I think I will go by it. Couple questions: what is the difference between first and second semester Linear Algebra courses? And what's the difference between Analysis 1 and 2? Thanks.
 
Last edited:
Oh 1st semester linear algebra is more computational then theoretical and it introduces you to the concepts of linear algebra like determinants, matrix theory, vector spaces,etc. Second semester linear algebra is all that but goes in more depth theoretically. What I meant by analysis 1 and 2(it goes by different names) is you basically cover proofs dealing with sequences all the way up to integration and differentiation in one dimension. In Analysis 2 you basically cover proofs involving calculus in several dimensions. Oh I see you like geometry. Well a good book that has both Calculus and Analytical geometry mixed would be by Calculus with Analytic Geometry by George Finlay Simmons. A good if your starting calculus. From there it You can go into Differential Geometry, Topology, Manifolds, Euclidean Geometry, Algebraic Geometry, etc. List goes on but like I said earlier if you have a good math foundation you could study whatever you have interest in.
 

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