Studying Reading Bishop & Goldberg's Tensor Analysis: Prerequisites for Physicists

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Graduate students in physics often face challenges with their mathematical foundations, particularly when transitioning to more advanced topics like differential geometry, abstract algebra, and functional analysis. Many express frustration with their ability to perform calculations without a deep understanding of the underlying concepts. To address this, students are encouraged to study mathematics more rigorously, starting with real analysis and introductory differential geometry. Resources like Bishop and Goldberg's "Tensor Analysis on Manifolds" can be daunting due to their complex language, highlighting the need for a solid grasp of prerequisites. Engaging with someone knowledgeable in both mathematics and physics can facilitate understanding. However, it's important to recognize that simply learning more mathematics may not resolve all comprehension issues, as similar challenges in understanding can arise in both fields.
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I am a graduate student in physics. One of my biggest frustrations in my education is that I often find that my mathematical background is lacking for the work I do. Sure I can make calculations adequately, well enough to even do well in my courses, but I don't feel like I really understand what's going on. To combat this problem I have decided to learn mathematics a bit more rigorously.

At this point I would like to learn a bit of differential geometry, some abstract algebra, and some functional analysis. The problem is, I don't really know where to begin. As an undergraduate I took linear algebra, ODEs, PDEs, and vector analysis. Those were more or less the only courses I took beyond Calculus I-III. As a graduate student I have taken your typical math methods course out of Arfken and Weber. These courses have not prepared me to read a book written for mathematicians.

I recently picked up Bishop and Goldberg's Tensor Analysis on Manifolds, however the book looks quite daunting to me. It is in a language I am not entirely familiar with. My question is what are the mathematical prerequisites to begin reading a book such as that. What should I read before I ever pick up these math books? Is there a quick intro into the language of mathematicians for physicists?
 
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I'd start with real analysis and maybe differential geometry of curves and surfaces. I don't know that there's a quick into.

Another thing you can do is try to find someone like me who knows a bit about both worlds and can translate between them to some degree.

I'm not sure what it is you're doing, but you might question whether more math is really the answer to finding the understanding you seek. There are definitely places where it will help, but it might not solve all your problems. Sometimes, I was able to do everything rigorously and solve all the textbook problems, but I still didn't feel like I really understood it. So, in math, you'll probably be confronted by some of the same problems as in physics.
 
I googled Bishop and Goldberg and came across this post and thought, wow, this guy has the exact same issues I did. It's remarkable, he's expressing this in almost the same way I would. I then looked at who wrote this post and realized it was me.

Anyway, if anyone else does have the same issue, I can't recommend this lecture series highly enough:
 
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Yesterday, 9/5/2025, when I was surfing, I found an article The Schwarzschild solution contains three problems, which can be easily solved - Journal of King Saud University - Science ABUNDANCE ESTIMATION IN AN ARID ENVIRONMENT https://jksus.org/the-schwarzschild-solution-contains-three-problems-which-can-be-easily-solved/ that has the derivation of a line element as a corrected version of the Schwarzschild solution to Einstein’s field equation. This article's date received is 2022-11-15...
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