Applied Systems of 1st order PDEs with many independant variables?

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SUMMARY

This discussion centers on the exploration of resources for understanding systems of linear first-order partial differential equations (PDEs) with multiple independent variables. Jason seeks recommendations for books or online materials that address both analytical and numerical methods for these systems, particularly those involving more than two independent variables. A suggestion was made to refer to Chapter 7 of "Mathematics of Classical and Quantum Physics" by Byron and Fuller, which discusses Green's function methods, although it primarily focuses on second-order linear PDEs. Jason expresses familiarity with Green's functions and characteristics for wave-like PDEs but seeks deeper insights into systems involving six equations and four independent variables.

PREREQUISITES
  • Understanding of linear first-order partial differential equations (PDEs)
  • Familiarity with Green's functions and their applications
  • Knowledge of characteristics for solving PDEs
  • Basic grasp of analytical and numerical methods in applied mathematics
NEXT STEPS
  • Research advanced texts on systems of first-order PDEs, focusing on multiple independent variables
  • Explore numerical methods for solving PDEs, such as finite difference and finite element methods
  • Study the application of Green's functions in higher-dimensional PDE systems
  • Investigate specialized online courses or lectures on multi-variable PDEs
USEFUL FOR

Mathematicians, physicists, and applied mathematicians interested in advanced topics related to systems of first-order PDEs with multiple independent variables, as well as graduate students looking to enhance their understanding of analytical and numerical approaches in this area.

jasonRF
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Does anyone know of any books or online resources that do a good job discussing systems of linear 1st order PDEs with several (more than 2) independent variables? I am not a mathematician, but can handle graduate level classical physics with the associated applied math. Analytical and numerical approaches are both of interest.

Thanks!

Jason
 
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Chapter 7 of Mathematics of Classical and Quantum Physics from Byron and Fuller might interest you (Green's function method of solving differential and partial differential equations). It probably isn't exactly/enough of what you're looking for, however, but it's like 10 bucks on Amazon and worth the read.
 
Thanks for the suggestion, but I am already comfortable with Green's functions at that level; likewise, I am familiar with characteristics for wave-like PDEs . I believe Byron and Fuller mainly tackle typical second order linear PDEs like the wave equation, Schrödinger's equation, etc. Based on the table of contents, I don't think Byron and Fuller contain much (if any) discussion of systems of first order equations. I am also familiar with characteristics for solving a single first order linear and nonlinear PDEs, and have looked at a couple of treatments of systems with two independent variables. I am just not skilled or confident enough to try to derive the method for greater than two independent variables. I am interested in learning how to tackle problems that have, say, 6 equations, 6 dependent variables and 4 independent variables (x,y,z,t).

thanks,

jason
 

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