Which Books Focus on the Formulation of Differential Equations?

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The discussion centers on the search for books focusing on the derivation of differential equations (DE) and partial differential equations (PDE) related to physical phenomena, such as heat flow and vibrating strings. Participants confirm that this topic falls under mathematical modeling of physical phenomena and suggest that many physics texts include derivations from first principles. Recommendations include "Partial Differential Equations" by Walter Strauss, which covers derivations and solutions, and "Mathematical Modeling Techniques" as a useful resource. The consensus emphasizes the need for academic texts rather than general audience books to find comprehensive derivations. Overall, the thread highlights the importance of targeted academic resources for understanding the formulation of differential equations.
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I have seen a few articles outlining the 'derivation' of certain differential equations - e.g. Heat flow equation, vibrating string wave equation etc.

Does this correctly fall under 'mathematical modeling of physical phenomenon?

Can anyone recommend a book that deals primarily with such derivations - I.e. The original formulation of the DE or the PDE - not so much the solutions of the equations.

Any mathematical publications ( magazines) that are relevant would also be appreciated.

Thanks
 
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avarmaavarma said:
I have seen a few articles outlining the 'derivation' of certain differential equations - e.g. Heat flow equation, vibrating string wave equation etc.

Does this correctly fall under 'mathematical modeling of physical phenomenon?

Can anyone recommend a book that deals primarily with such derivations - I.e. The original formulation of the DE or the PDE - not so much the solutions of the equations.

Any mathematical publications ( magazines) that are relevant would also be appreciated.

Thanks
It depends on what you're looking for. Most texts discussing heat flow or vibration, for example, contain derivations of the basic equations governing such phenomena from first principles. If you are interested in a particular topic, you can usually find an article by doing a web search. If you are looking for a text which covers a variety of topics, most physics texts, at least the ones which are calculus-based, have the derivation of the basic equations.

You need to find an academic text, rather than one which is geared to a general reading audience and which contains minimal mathematics.
 
Thanks. I do have such academic texts - and am able to find bits and pieces here and there. However, the closest thing I got to what I was looking for was -'Mathematical modeling techniques' a dover text. Am still curious to see if other books deal with this topic singlepointedly...thanks
 
Partial differential equations by Walter Strauss treats the mathematics of PDE's and also derives the PDE's from basic principles (It takes him less then half a page each). The vibrating string, and heat conduction are derived in chapter 1. He then spends half of the book explaining how to solve these equations for different boundary conditions.
Most PDE's are derived in the introduction chapter of a book dealing only with that specific equation, e.g. the navier stokes equation in a book on fluid dynamics, or the schrodinger equation in a quantum mechanics book. Like SteamKing said, it depends on what you're looking for.
 
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