Choice between two grad math classes, DG vs. PDE

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SUMMARY

The discussion centers on the decision between two graduate math courses: "Differentiable Manifolds" and "Partial Differential Equations" (PDE). The former utilizes "Comprehensive Introduction to Differential Geometry, Vol. 1" and covers topics such as vector bundles and Stokes' theorem, while the latter follows L. C. Evans' "Partial Differential Equations" and focuses on properties of solutions to Laplace's equation and nonlinear PDEs. The participant expresses concern over their mathematical background, particularly in finite-dimensional vector spaces and rigorous calculus, and seeks advice on which course would better enhance their mathematical maturity for future physics research.

PREREQUISITES
  • Understanding of differentiable manifolds and vector bundles
  • Familiarity with partial differential equations and their properties
  • Knowledge of real analysis, particularly Lebesgue integration and limit theorems
  • Basic concepts of topology and abstract algebra
NEXT STEPS
  • Study "Comprehensive Introduction to Differential Geometry, Vol. 1" for a deeper understanding of differentiable manifolds
  • Review "Partial Differential Equations" by L. C. Evans to grasp foundational concepts of PDEs
  • Enhance knowledge of finite-dimensional vector spaces through linear algebra resources
  • Explore advanced calculus topics, focusing on rigorous calculus of multiple variables
USEFUL FOR

Graduate students in mathematics or physics, particularly those considering advanced courses in differential geometry or partial differential equations, and anyone looking to strengthen their mathematical foundation for research in physics.

mordechai9
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I am trying to decide between two different graduate math classes in the fall. These are the only classes that sound really interesting to me, as well as fitting in with the rest of my schedule. My other courses will consist of several physics type courses, notably, Jackson's electrodynamics, intro to plasma physics, and intro to nuclear physics.

One is called "Differentiable manifolds", using the textbook "Comprehensive introduction to differential geometry, vol. 1", with a description like the following: "This course is the first introduction to differentiable manifolds. We will cover the basics: differentiable manifolds, vector bundles, implicit function theorem, submersions and immersions, vector fields and flows, foliations and Frobenius theorem, differential forms and exterior calculus, integration and Stokes' theorem, De Rham theory, etc. If time allows it, we will branch into Riemannian manifolds."

The second course is "Partial differential equations", using the textbook "Partial Differential Equations" by L. C. Evans. The description is: "This is an introductory course in partial differential equations. We will follow the textbook by L. C. Evans. The course will consist of the following parts: 1. Basic properties of solutions of Laplace's equation and the heat and wave equations. 2. Second order linear elliptic and parabolic equations: existence, regularity, maximum principles. 3. First order nonlinear PDE: introduction to Hamilton-Jacobi equations and conservation laws."

Both classes sound interesting and useful, but I'm a little bit unsure which one I'm actually capable of handling. Both of them sound pretty tough and I am a little bit worried about my background being sufficient. Both subjects are interesting and I am unsure which class would be better for my overall mathematical maturity at this point in time. Eventually I will be doing research in physics, but I think both classes would be helpful for my end goals.

My background is just having graduated with a math degree, completing the following math courses: Real analysis I (Intro to analysis), Real analysis II (Intro to Lebesgue integration, measure theory, limit theorems), complex variables, differential equations, topology, abstract algebra, linear algebra, curves and surfaces (intro to differential geometry)... and that's all. I think I may have a little deficiency in terms of finite dimensional vector spaces, or very rigorous calculus of multiple variables.

Any advice would be really appreciated...
 
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i guess you're a physics major? pdes will be much more useful but obviously dg will be necessary if you're interested in GR
 

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