Tech Impact of Solutions to both Millennium Physics Problems

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SUMMARY

The discussion centers on the potential impacts of solving the Navier-Stokes smoothness problem and the Yang-Mills mass gap problem, two of the Millennium Prize Problems in physics. Participants express skepticism about the technological advancements that would arise from proving these problems true, suggesting that the real interest lies in demonstrating their falsehood. A false proof of the Navier-Stokes equations would indicate limitations in their applicability, prompting experimental validation. The conversation highlights the broader implications of these problems on both theoretical and experimental physics.

PREREQUISITES
  • Understanding of the Navier-Stokes equations and fluid dynamics
  • Familiarity with Yang-Mills theory and quantum field theory
  • Knowledge of the Millennium Prize Problems and their significance
  • Basic principles of mathematical proof and experimental validation
NEXT STEPS
  • Research experimental methods for validating the Navier-Stokes equations
  • Explore the implications of Yang-Mills theory in particle physics
  • Investigate the historical context and significance of the Millennium Prize Problems
  • Study the Riemann hypothesis and its impact on mathematical theory
USEFUL FOR

Physicists, mathematicians, and researchers interested in theoretical physics, fluid dynamics, and the implications of unsolved mathematical problems on experimental research.

greswd
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Out of the 6 remaining Millennium Prize Problems, two concern physics, the Navier-Stokes smoothness problem and the Yang-Mills mass gap problem.

What I'm curious about is, if both problems were to be solved right now, what would be the immediate experimental and/or technological impacts of the solutions?

We can explore both scenarios (proven true/false) for each problem.
 
Everyone expects them to be true - I don't see technological advances that would come from a proof. The situation is similar for many other unsolved mathematical problems, e. g. the Riemann hypothesis: sure, a proof would be great, but mainly of mathematical interest, putting a checkbox after all proofs "assuming the Riemann hypthesis is true, then [...]".

Showing that one of them is false would be much more interesting. As an example, it would show that the Navier-Stokes equations for describing fluids have to be wrong in some situation. Can we reproduce this experimentally?
 
mfb said:
Everyone expects them to be true - I don't see technological advances that would come from a proof. The situation is similar for many other unsolved mathematical problems, e. g. the Riemann hypothesis: sure, a proof would be great, but mainly of mathematical interest, putting a checkbox after all proofs "assuming the Riemann hypthesis is true, then [...]".

Showing that one of them is false would be much more interesting. As an example, it would show that the Navier-Stokes equations for describing fluids have to be wrong in some situation. Can we reproduce this experimentally?
that sounds interesting. Maybe an experimenter could even find the answer before a mathematician.

what about for Yang Mills?
 

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