# Nakahara Geometry Topology And Physics Djvu Viewer UPD

Towards this purpose I want to know what are the most important basic theorems in differential geometry and differential topology. For a start, for differential topology, I think I must read Stokes' theorem and de Rham theorem with complete proofs.

## Nakahara Geometry Topology And Physics Djvu Viewer

ADDITION: I have compiled what I think is a definitive collection of listmanias at Amazon for a best selection of books an references, mostly in increasing order of difficulty, in almost any branch of geometry and topology. In particular the books I recommend below for differential topology and differential geometry; I hope to fill in commentaries for each title as I have the time in the future.

For differential geometry, I don't really know any good texts. Besides the standard Spivak, the other canonical choice would be Kobayashi-Nomizu's Foundations of Differential Geometry, which is by no means easy going. There is a new book by Jeffrey Lee called Manifolds and Differential Geometry in the AMS Graduate Studies series. I have not looked at it personally in depth, but it has some decent reviews. It covers a large swath of the differential topology, and also the basic theory of connections. (As a side remark, if you like doing computations, Kobayashi's original paper "Theory of connections" is not very hard to read, and may be a good starting place before you jump into some of the more special-topic/advanced texts like Kolar, Slovak, and Michor's Natural operations in differential geometry.)

I'm doing exactly the same thing as you right now. I'm self-learning differential topology and differential geometry. To those ends, I really cannot recommend John Lee's "Introduction to Smooth Manifolds" and "Riemannian Manifolds: An Introduction to Curvature" highly enough. "Smooth Manifolds" covers Stokes Theorem, the de Rham theorem and more, while "Riemnannian Manifolds" covers connections, metrics, etc.