Current DE Research: Math Physics & Unsolved Areas

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SUMMARY

The discussion centers on the current state of research in differential equations within mathematical physics, highlighting the challenges and unsolved problems in the field. Key areas of interest include the search for a closed-form algorithm for general first-order ordinary differential equations (ODEs) and the development of canonical forms for partial differential equations (PDEs) through differential Groebner bases. Participants emphasize the complexity of these problems and the limitations of existing tools like Maple, which rely on ansatz methods. The conversation underscores the need for systematic approaches to uncover additional properties of ODEs for effective solutions.

PREREQUISITES
  • Understanding of differential equations, specifically first-order ODEs and PDEs.
  • Familiarity with mathematical physics concepts and their applications.
  • Knowledge of computational tools such as Maple for solving differential equations.
  • Basic grasp of Groebner bases and their relevance in differential equations.
NEXT STEPS
  • Research the development of closed-form algorithms for first-order ODEs.
  • Explore the concept of differential Groebner bases and their applications in PDEs.
  • Investigate systematic methods for identifying properties of ODEs.
  • Study advancements in mathematical physics related to unsolved problems in differential equations.
USEFUL FOR

This discussion is beneficial for undergraduate students in physics and mathematics, researchers focusing on differential equations, and professionals seeking to understand current challenges in mathematical physics.

Parmenides
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Hello Everybody,

I currently study physics and math as an undergraduate and the area of differential equations is of great interest to me (despite being immensely challenging!). I wanted to peer into the current development of differential equations in mathematical physics and if there remains any modern areas of research that remain unsolved or of interest to the professional/academic world. Perhaps there are some previous pages that discuss this that somebody could refer me to? Thank you!
 
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What would you like to do exactly? Study model equations of physical problems, or work on mathematical proofs of properties of differential equations?

which field of mathematics/physics are you interested in? I guess every field has its own specific problems.

If you want to focus on problems with finding solutions of differential equations, independent on any physics, then a problem like finding the canonical form of pde's (finding the differential Groebner basis) is interesting to investigate. Even a seemingly simple thing like a closed-form algorithm for general first order ode's does not exist yet.
 
bigfooted said:
Even a seemingly simple thing like a closed-form algorithm for general first order ode's does not exist yet.

What exactly do you mean by closed-form? Do you mean an algorithm for any 1st order ODE in general?
 
diligence said:
What exactly do you mean by closed-form? Do you mean an algorithm for any 1st order ODE in general?

I mean an algorithm that is closed in the sense that you do not need an ansatz (an initial guess) to solve a 1st order ODE. Current solution methods in e.g. Maple go through a list of common ansatze and check if the ODE can be solved by them. For instance, they check if the ODE is translational invariant. Once we know an additional property of the ODE we can solve it, but we don't know how to get the additional property in a systematic way.
 

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